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Safe Benzene Substitutes for Chemical Formulations

Fri, 24 Apr 2026 18:49:28 GMT

Benzene has been widely used as a solvent in coatings, inks, adhesives , and chemical processing due to its strong solvency and fast evaporation rate. Despite its effectiveness, its toxicity and strict regulatory controls have forced many manufacturers to move away from it.

Formulators now need a benzene substitute that delivers similar performance while reducing health risks and environmental impact. The challenge lies in finding options that fit into existing formulations without major process changes or cost increases.

What Are the Best Alternatives to Benzene?

The right benzene substitute depends on its role in a formulation, such as carrier solvent, resin solubility, or viscosity control.

Common alternatives include:

Aromatic hydrocarbons like toluene and xylene, which offer similar solvency

Aliphatic hydrocarbons such as heptane, which reduce toxicity but have lower solvency strength

Cycloaliphatic solvents, like cyclohexane, for more specialized use cases

Oxygenated solvents, including alcohols, esters, and ketones that introduce polarity

Bio-based solvents derived from renewable feedstocks that balance performance and safety

Each option involves trade-offs in solvency, evaporation rate, and regulatory profile, so selection depends on formulation and process requirements.

Why Replace Benzene?

Benzene presents well-documented health risks that have led to strict exposure limits across industrial environments. Prolonged or repeated exposure has been linked to serious conditions, which has made it a target for regulatory agencies worldwide.

Beyond worker safety, benzene also creates challenges in compliance and product labeling. Many manufacturers face pressure to reduce hazardous air pollutants and improve the safety profile of their formulations. This shift often comes from internal sustainability goals, customer requirements, or evolving environmental standards.

Operationally, replacing ben zene can reduce handling risks, lower emissions, and improve workplace conditions. For formulators and plant managers, the focus is on finding a benzene substitute that maintains performance while reducing these liabilities.

Key Criteria for Evaluating Benzene Alternatives

When selecting a benzene substitute, focus on a few key factors:

Solvency strength: Ability to dissolve target resins, oils, or contaminants

Evaporation rate: Impact on drying time and production speed

Toxicity and safety profile: Worker exposure risks and handling requirements

Regulatory status: Alignment with environmental and safety standards

Material compatibility: Interaction with substrates, plastics, and equipment

Cost-in-use: Performance relative to total usage and operational impact

The right solvent meets performance needs without introducing new production or compliance challenges.

Common Traditional Benzene Replacement Solvents

Several petroleum-based solvents have been used to replace benzene in industrial formulations. These options offer varying levels of solvency, evaporation rates, and safety profiles, but often come with trade-offs that impact performance or compliance.

Toluene

Toluene remains a widely used benzene substitute due to its similar aromatic structure and strong solvency. It supports performance in coatings, adhesives, and inks, though health and regulatory concerns still apply.

Xylene (Mixed Isomers)

Xylene provides strong solvency with a slower evaporation rate than benzene. It is used in coatings and processing applications where longer drying times are acceptable, but exposure risks remain a factor.

Cyclohexane

Cyclohexane serves as a non-aromatic option in select applications such as polymer processing and reaction media. Its solvency profile differs from benzene, which can limit direct substitution.

Heptane and Other Aliphatic Hydrocarbons

Oxygenated Solvents (Alcohols, Esters, Ketones)

Oxygenated solvents introduce polarity, making them suitable for systems that require different solubility characteristics. They are typically used in blends and may not match benzene’s performance on their own.

The Limitations of Traditional Benzene Alternatives

Traditional benzene substitutes can meet performance needs in certain applications, but trade-offs remain.

Aromatic solvents like toluene and xylene retain strong solvency but still carry toxicity and regulatory concerns. Aliphatic and cycloaliphatic options reduce toxicity, though lower solvency can require formulation changes.

Oxygenated solvents introduce polarity, which can help in some systems but create compatibility issues in others.

In many cases, these options shift the problem rather than resolve it, driving interest in safer, high-performance alternatives.

Bio-Based Benzene Alternatives: A Safer, High-Performance Approach

Bio-based solvents replace petroleum-derived chemistries with renewable feedstocks such as corn, soybeans, and citrus . These options deliver strong solvency while reducing toxicity and environmental impact.

Many support effective resin dissolution, cleaning, and processing without the regulatory burden tied to traditional solvents. For formulators, this allows safer substitution without sacrificing performance or efficiency.

Vertec BioSolvents as an Alternative to Benzene

Vertec BioSolvents develops bio-based solvent blends that replace benzene in a wide range of formulations. These products are engineered to match solvency performance while reducing toxicity and regulatory concerns.

Vertec’s solutions integrate into existing systems with minimal disruption. Formulators can maintain product performance without major changes to processes or equipment.

For distributors and manufacturers, this shift reduces reliance on hazardous solvents while maintaining consistent, high-level performance.

Industrial Applications for Vertec’s Benzene Alternatives

Vertec’s bio-based solvents are used across a range of industrial applications where benzene has traditionally played a role.

Formulations (Coatings, Inks, Adhesives)

Vertec’s solvents dissolve resins and control viscosity in coatings , inks, and adhesives . They help maintain flow, leveling, and film quality without the hazards tied to benzene.

Industrial Cleaning and Degreasing

These solvents remove oils, greases, and residues from equipment and parts. They perform in demanding cleaning applications while reducing exposure risks for operators.

Process and Reaction Media

Vertec’s bio-based options function as carriers and reaction media in chemical processing. They provide stable performance across a range of conditions while lowering reliance on hazardous solvents.

How to Replace Benzene with Vertec Bio-Based Solvents

Replacing benzene starts with understanding its role in your formulation or process. Solvency strength, evaporation rate, and compatibility should be evaluated first to identify the right Vertec alternative .

From there, most transitions follow a straightforward path:

Test the bio-based solvent in small-scale formulations or cleaning processes
Compare performance metrics such as solvency, dry time, and material compatibility
Adjust concentration levels if needed to optimize results
Scale into production once performance targets are met

Vertec works closely with distributors and formulators to streamline this process, helping reduce trial-and-error and shorten transition timelines.

If you are looking for a safer benzene substitute that maintains performance, Vertec BioSolvents can help you identify the right solution for your application. Reach out to our team to discuss your formulation needs and request a sample.

Methyl Ethyl Ketone (MEK) Substitute That's Safer and More Effective

Thu, 12 Mar 2026 20:31:21 GMT

Methyl Ethyl Ketone (MEK) has long been used in manufacturing for cleaning, degreasing, and thinning coatings. Its strong solvency power makes it effective for dissolving resins, oils, and adhesives across many industrial processes.

At the same time, growing safety concerns and stricter environmental regulations have pushed many companies to search for a MEK substitute that delivers similar performance while reducing toxicity , emissions, and worker exposure .

Why Companies Are Searching for a MEK Substitute

MEK remains widely used in industrial cleaning, coatings, and adhesive applications, yet many manufacturers now look for safer options. Worker exposure concerns, VOC regulations, and handling risks have pushed facilities to reevaluate solvent choices.

MEK can irritate the eyes, skin, and respiratory system, which often requires strict ventilation and safety procedures. Its high volatility also contributes to VOC emissions that fall under tightening environmental regulations.

These pressures have increased demand for a methyl ethyl ketone substitute that maintains strong solvency power while offering lower toxicity, reduced emissions, and compatibility in existing processes.

Common MEK Replacements and How They Compare

Several solvents are commonly used to replace MEK in industrial processes. Each provides certain benefits, yet many come with performance limitations, safety concerns, or regulatory drawbacks. Understanding these options helps manufacturers determine which solvents can realistically function as a practical MEK substitute in demanding environments.

Acetone

Acetone is a common solvent used when companies attempt to replace MEK. It evaporates quickly and dissolves many resins, oils, and adhesives. Its wide availability and relatively low cost make it appealing for large-scale industrial use.

The fast evaporation rate can create problems in certain processes. Short working time may require repeated application during cleaning or coating tasks. Acetone also remains highly flammable and contributes to VOC emissions. In many operations, it does not function as a direct MEK substitute when a longer dwell time is required.

Methyl Isobutyl Ketone (MIBK)

Methyl Isobutyl Ketone, or MIBK, evaporates more slowly than MEK and acetone. This slower rate can improve working time in coatings, inks, and adhesive formulations.

The solvent dissolves many resins used in industrial coatings and adhesives, which allows it to replace MEK in some formulations. However, MIBK still carries toxicity concerns and flammability risks. VOC regulations may also limit its use in certain regions, which means the overall safety and environmental profile changes very little.

Glycol Ethers & Specialty Solvents

Glycol ethers and specialty solvent blends are sometimes selected when stronger solvency or slower evaporation is needed. These solvents can dissolve a wide range of resins used in coatings, inks, and adhesives.

In some cases, glycol ethers improve flow and leveling in coatings or stabilize resin systems. However, several glycol ethers still carry toxicity concerns and regulatory scrutiny. Specialty solvent blends may also increase formulation costs or create compatibility issues in existing processes.

The Challenge with Traditional MEK Replacements

Many solvents can replace MEK in certain applications, yet few match its balance of solvency strength, evaporation rate, and formulation compatibility. Switching to common replacements can introduce new operational problems.

Fast-evaporating solvents reduce working time during cleaning or coating applications. Slower solvents may leave residue or extend drying times. Some alternatives still carry toxicity concerns or fall under similar VOC restrictions.

These limitations push manufacturers to search for solvents that maintain strong performance while lowering toxicity, reducing emissions, and fitting into existing processes without major formulation changes.

VertecBio™ ELSOL® KTR1: Lower Toxicity, Eco-Friendly MEK Substitute

VertecBio™ ELSOL® KTR1 addresses many of the limitations found in traditional solvent replacements. The bio-based solvent delivers strong solvency for oils, greases, adhesives, and resins used in industrial processes while supporting a lower toxicity profile.

KTR1 is formulated from renewable resources and designed for compatibilit y in cleaning, coatings, and formulation environments. For companies evaluating a safer MEK substitute, it provides strong performance along with reduced environmental impact.

Industrial Applications for VertecBio™ ELSOL® KTR1

VertecBio™ ELSOL® KTR1 works across several industrial processes that traditionally rely on ketone solvents. Its solvency strength allows manufacturers to use it in cleaning operations, coatings work, and formulation environments.

Cleaning & Degreasing

Industrial equipment accumulates oils, greases, and process residues that must be removed before maintenance or production runs. VertecBio™ ELSOL® KTR1 dissolves many of these contaminants and works well for parts cleaning, equipment wipe downs, and maintenance operations.

Facilities can use it in manual cleaning processes or solvent-based systems where strong solvency is required.

Surface Preparation

Surface preparation plays an important role in coating adhesion and product quality. Residual oils, machining fluids, and contaminants can interfere with coating performance.

KTR1 helps remove these materials before painting, bonding, or coating steps. Clean surfaces improve adhesion and reduce coating defects during production.

Paints, Coatings & Thinning

Solvents influence viscosity, application behavior, and drying characteristics in coating systems.

KTR1 dissolves many coating resins and can be used in certain paint and coating systems where ketone-type solvents are traditionally used.

Resins, Inks, and Adhesives Formulations

Formulators require solvents that dissolve resins while maintaining stability in the final product. KTR1 works in a range of resin systems used in inks, adhesives, and coatings.

Its solvency strength allows formulators to explore lower-toxicity solvent systems without sacrificing performance in many industrial formulations.

How to Switch from MEK to Vertec BioSolvents

Replacing MEK does not always require a complete process redesign. Many facilities begin with testing in cleaning operations or formulation trials to evaluate solvency performance, drying behavior, and material compatibility.

A typical transition process may include:

Small-scale testing in existing cleaning or degreasing systems
Evaluation of coating or resin compatibility in lab formulations
Adjustments to evaporation time or application methods, if needed
Pilot use in production environments before full adoption

Because VertecBio™ ELSOL® KTR1 works in a wide range of industrial applications, many manufacturers can integrate it into existing processes without major equipment changes.

Companies searching for safer solvent options often start with application testing and technical consultation. Vertec BioSolvents can help evaluate where KTR1 fits within current operations and formulations.

To learn more about VertecBio™ ELSOL® KTR1 or request a sample, contact the Vertec BioSolvents team to discuss your application and solvent requirements.

Methylene Chloride (DCM) Alternatives: Safer Options for Your Applications

Mon, 19 Jan 2026 19:17:43 GMT

The EPA’s final rule on methylene chloride (DCM) sets an April 2026 deadline for phasing out most commercial uses under the Toxic Substances Control Act (TSCA). For manufacturers, this is more than a regulatory update. It puts core operations, supply chains, and product performance at risk.

DCM earned its place for a reason. It delivers strong solvency, fast evaporation, and broad material compatibility. Replacing it isn’t simple. Industries that rely on DCM for paint stripping, adhesive removal, or degreasing now face the challenge of reformulating without losing efficiency.

Choosing a suitable methylene chloride alternative has become a priority. Businesses need replacement solvents that match DCM’s performance, without the steep costs of WCPP compliance or process disruption.

What Is Methylene Chloride (DCM) and What Is It Used For?

Methylene chloride, or dichloromethane (DCM), is a fast-evaporating chlorinated solvent valued for its powerful solvency and broad material compatibility. It has played a key role in industrial processes for decades.

DCM is commonly used for:

Paint and coating removal

Adhesive thinning and cleanup

Metal degreasing

Resin and polymer processing

Pharmaceutical manufacturing

Its high Kauri-butanol (Kb) value of 136 reflects its ability to dissolve tough residues quickly. DCM also works across a wide range of materials, which makes it a go-to solvent in applications that require both speed and strength.

Despite its effectiveness, health and safety risks linked to exposure have triggered strict regulatory actions in the U.S. and abroad.

Is Methylene Chloride Banned? Understanding the EPA TSCA Final Rule

In April 2023, the U.S. Environmental Protection Agency (EPA) finalized a rule under the Toxic Substances Control Act (TSCA) that restricts most commercial uses of methylene chloride. This action followed years of mounting evidence linking DCM exposure to serious health risks, including neurological damage, liver toxicity, and cancer.

The final rule gives businesses until April 2026 to phase out DCM in manufacturing and industrial processing. After that point, continued use will trigger strict oversight under the Workplace Chemical Protection Program (WCPP), requiring extensive exposure monitoring, medical surveillance, and engineering controls.

These requirements are both costly and operationally disruptive. For many companies, the added burden is unsustainable. As a result, chemical formulators and manufacturers across multiple sectors are searching for safer methylene chloride alternatives that maintain performance without triggering WCPP compliance.

The deadline is approaching. Any delay in evaluating replacement solvents risks stalled production, regulatory penalties, or a rushed transition that sacrifices quality.

The Essential Move to a Methylene Chloride Substitute Solvent

For operations that have relied on methylene chloride, the path forward is clear. Either absorb the cost and complexity of WCPP compliance, or shift to a safer solvent that meets the same technical standards.

The second option is more sustainable. But not every substitute can match what DCM delivered . Many alternative solvents fall short in solvency strength, evaporation rate, or material compatibility. That puts formulators in a difficult position, choosing between safety and performance.

The right methylene chloride substitute avoids that tradeoff. It maintains process efficiency while removing the exposure risks and compliance burden. For chemical distributors, this is an opportunity to provide customers with smarter, regulation-ready solutions that keep production moving.

Why Traditional "Drop-In" Replacements Often Fail

When methylene chloride became a regulatory concern, many formulators looked for quick drop-in replacements. The idea was simple: swap one solvent for another without changing the process. In most cases, that approach didn’t hold up.

Many substitutes lacked the solvency strength needed to break down coatings or adhesives efficiently. Some created compatibility problems with plastics, elastomers, or sensitive metals. Slower evaporation rates introduced new bottlenecks in drying or curing. In some cases, the replacement carried its own health or compliance risks, creating new problems instead of solving the original ones.

DCM delivered a rare mix of power, speed, and versatility. Most traditional replacements fall short in one or more of those categories. That leaves formulators stuck between underperforming alternatives or costly process changes.

To move forward, the solution has to match DCM’s capabilities where it counts. Anything less compromises product performance or adds unnecessary cost.

Introducing Vertec BioSolvents: The Green Solution to the DCM Ban

Vertec BioSolvents develops high-performance, bio-based alternatives that meet the technical demands of methylene chloride applications. These solvents are engineered for strength, speed, and compatibility, without triggering WCPP requirements or exposing workers to hazardous chemicals.

Two flagship solutions offer a direct path forward for distributors and manufacturers who need reliable methylene chloride alternatives.

VertecBio Gold®: The Heavy-Duty Stripping Powerhouse

VertecBio Gold® is designed for applications that require aggressive stripping power, particularly in coatings and adhesive removal. It offers a strong solvency profile that rivals methylene chloride, with a high Kb value that makes it effective on cured paints, varnishes, and industrial adhesives.

Unlike many substitutes, VertecBio Gold® maintains fast-working performance without introducing flammability or high toxicity. It is non-HAP, VOC-exempt in select regions, and derived from renewable feedstocks. That gives manufacturers a safer solvent that meets both technical and regulatory requirements.

Typical applications include:

Paint stripping in OEM and maintenance settings

Resin and adhesive breakdown

High-strength cleaning for equipment and tools

For operations transitioning away from DCM, VertecBio Gold® offers comparable power without the compliance overhead.

ELSOL® Series: High-Performance Drop-In Replacements

The ELSOL® Series is built for formulators who need a true drop-in replacement for methylene chloride without compromising efficiency or material safety. These solvents combine balanced evaporation rates with strong solvency performance across a wide range of substrates.

ELSOL® solvents perform well in:

Precisio n cleaning

Resin removal

Degreasing applications

Coatings formulation

Kb values range from moderate to high, allowing each product to align with specific process needs. Some are tuned for fast flash-off, others for high solvency strength or compatibility with plastics and metals.

Bio-based and non-HAP, the ELSOL® Series avoids the regulatory triggers tied to chlorinated solvents. For teams ready to move away from DCM, these products fit into existing workflows without compromising results.

Performance Without Compromise: The Vertec Bio-Based Advantage

Vertec solvents are built for industrial performance. Each one is developed around key metrics like Kb value, evaporation rate, and material compatibility to meet the same demands as methylene chloride.

They perform across a wide range of applications, from stripping and degreasing to cleaning and surface prep. Transitioning to these solvents doesn’t require changes to equipment or process.

All products are bio-based, non-HAP, and outside the scope of WCPP oversight. That helps teams avoid compliance costs while keeping production on track.

How to Switch from DCM to Vertec BioSolvents

Switching away from methylene chloride starts with identifying the performance requirements of your current solvent. Solvency strength, evaporation rate, and material compatibility all factor into selecting the right replacement.

Vertec BioSolvents works directly with chemical distributors and manufacturers to match each application with the right bio-based solution. Some users need aggressive stripping power. Others need a functional drop-in cleaner that maintains process speed. Our technical team supports the transition from initial testing through full-scale use.

There’s no reason to wait until the 2026 deadline. Early planning avoids production delays, added compliance costs, and rushed reformulation.

Contact Vertec BioSolvents to request samples, review technical data, or talk through your replacement strategy. Our team is ready to help you move forward.

Ethyl Acetate Solvent: Bio-Based Green Alternative for Industrial Applications

Fri, 19 Dec 2025 19:44:41 GMT

Ethyl acetate is a widely used solvent across industrial applications, valued for its strong solvency, fast evaporation rate, and compatibility with a variety of resins and additives. It plays a key role in manufacturing processes for paints, coatings, adhesives, inks, and cleaning formulations.

As sustainability goals grow more important and regulatory requirements become stricter, many companies are reevaluating their solvent choices. Ethyl acetate is now under increased scrutiny, prompting formulators and procurement teams to consider safer and more environmentally responsible alternatives that still meet high-performance standards.

What is Ethyl Acetate (EA) and Why Is It a Formulator’s Staple?

Ethyl acetate, also known as ethyl ethanoate, is a carboxylate ester typically produced by combining ethanol and acetic acid. It is a clear, colorless liquid with a mild, fruity odor and is recognized for its excellent solvency, moderate boiling point, and fast evaporation rate.

Its properties make it an essential tool for formulators. Ethyl acetate dissolves a wide range of materials, including polymers, oils, and resins, which makes it useful in applications such as inks, paints, adhesives, coatings, and industrial cleaners. It is also used as an extraction agent and carrier solvent in various chemical processes.

With a long history of use, low cost, and broad compatibility, ethyl acetate solvent continues to be a reliable and flexible choice in both large-scale production and specialized formulations.

The Essential Move to an Ethyl Acetate Green Solvent

Traditional ethyl acetate is typically produced using petroleum-based feedstocks. Although the solvent itself is relatively low in toxicity, its origin and production process raise concerns about emissions, sustainability, and long-term environmental impact. In industrial settings, high volumes also create risks related to flammability and air quality.

As more manufacturers adopt sustainability initiatives, interest is growing in bio-based alternatives that offer comparable performance with fewer environmental and safety concerns. A green ethyl acetate solvent allows companies to maintain formulation efficiency while improving their environmental profile and aligning with evolving regulatory standards.

Choosing a renewable alternative can help reduce carbon footprint, improve workplace safety, and support more responsible sourcing practices.

Introducing Bio-Based Ethyl Acetate: Performance Without Compromise

VertecBio™ Ethyl Acetate is a high-purity, 100% bio-based solvent produced from renewable, corn-derived ethanol. It was developed to meet the same performance benchmarks as petroleum-based ethyl acetate while helping manufacturers reduce environmental impact and regulatory burden.

This ethyl acetate green solvent is readily biodegradable and contains no hazardous air pollutants, ozone-depleting compounds, or Proposition 65-listed chemicals. Its solvency, evaporation rate, and formulation compatibility are consistent with traditional grades, making it an ideal drop-in solution for companies seeking to improve sustainability without changing production methods.

With its clean safety profile and reliable performance, VertecBio™ Ethyl Acetate is designed to support both formulation flexibility and long-term environmental goals.

Applications for Integrating Bio Ethyl Acetate

Bio-based ethyl acetate offers the same versatility as its petroleum-derived counterpart, making it a seamless fit for a wide range of industrial and commercial uses. Its strong solvency power, fast evaporation rate, and low surface tension allow it to work effectively with polymers, resins, and oils, key ingredients in many complex formulations.

Industries and common applications include:

Paints and Coatings : Acts as a solvent and flow agent, ensuring smooth application and consistent film formation.

Printing Inks: Delivers reliable evaporation for flexographic, gravure, and screen printing systems, particularly on fast-drying substrates.

Adhesives and Sealants: Aids in polymer dissolution and viscosity adjustment without leaving behind residues that could affect bonding strength.

Cleaning and Degreasing Agents : Removes oils, residues, and industrial buildup with high efficiency while reducing concerns around worker exposure.

Fragrance and Flavor Manufacturing: Functions as a carrier or extraction solvent in controlled environments where purity is essential.

Polymer and Resin Processing: Useful in synthetic material production and modification, where controlled evaporation and solvency are required.

Agricultural Formulations: Helps deliver active ingredients effectively in herbicides, pesticides, and plant growth products.

Because VertecBio™ Ethyl Acetate maintains technical performance across these applications, formulators can often adopt it without process changes. Its bio-based origin also helps meet internal sustainability targets and growing customer demand for cleaner ingredient sourcing.

Partnering for Innovation in BioSolvents

At Vertec BioSolvents , innovation and sustainability go hand in hand. Our team works closely with manufacturers, formulators, and procurement professionals to deliver solvent solutions that align with evolving performance, safety, and environmental expectations. With a strong focus on quality, consistency, and regulatory compliance, we help businesses make informed, confident transitions to bio-based alternatives.

VertecBio™ Ethyl Acetate represents the next generation of green solvent technology , offering the purity and reliability industrial users require, with the sustainability profile modern supply chains demand.

If you're evaluating ethyl acetate solvent grade suppliers or looking for a safer, high-performance alternative, we invite you to connect with our team. Contact us today to request a sample, get technical data, or discuss how VertecBio™ Ethyl Acetate can support your application needs.

Replacing Acetone: Safe, Non-Toxic Acetone Alternatives to Meet Your Needs

Fri, 05 Dec 2025 19:39:00 GMT

Acetone, sometimes known also as Propanone, is a good industrial solvent for many plastics and synthetic fibers. It is used for everything from thinning paints and resins to cleaning tools. It is also used as one of the volatile components of paints and varnishes. However, there are several crucial drawbacks that make finding a replacement solvent of the utmost importance. Here, we will outline a few of the reasons why you should begin to replace acetone and how to get started.

Why Do I Need to Replace Acetone?

Acetone is a commonly used industrial solvent valued for its effectiveness and fast evaporation. However, increasing concerns about worker safety, environmental impact, and regulatory pressure have prompted many manufacturers to explore safer options.

Finding an acetone substitute is no longer just a matter of preference. For many operations, it is a practical step toward reducing risk, improving compliance, and meeting sustainability goals.

Negative Health Concerns & Toxicity

Acetone exposure can lead to a range of health issues, particularly in facilities where workers experience regular contact or frequent vapor inhalation. Short-term exposure may cause eye, skin, and respiratory irritation, while higher concentrations can contribute to headaches, dizziness, and fatigue.

Prolonged or repeated exposure increases concern, as it can worsen skin dryness, create sensitization issues, and contribute to chronic irritation for workers. These risks have encouraged many companies to evaluate safer options and consider an acetone alternative that reduces exposure hazards without disrupting existing processes.

Flammability and Storage Risks

Acetone’s high flammability makes it a serious safety concern in industrial settings. Its vapors can ignite easily, even at low temperatures, creating fire risks around drains, electrical equipment, and open flames.

Storing acetone requires strict safety protocols, including dedicated flammable storage cabinets and careful separation from ignition sources. These precautions can add cost and complexity to operations, leading many facilities to seek a safer acetone alternative that reduces fire risk without compromising performance.

Operational Hassles and Compliance

Using acetone at scale often introduces administrative and logistical challenges. Disposal typically requires hazardous waste handling procedures or specialized recycling services, both of which can increase operational costs.

Many states have additional reporting requirements tied to acetone usage, and federal agencies like OSHA and the NFPA classify it as a flammable and hazardous substance. Staying compliant can be time-consuming and costly, which is why many organizations are now evaluating safer, easier-to-manage alternatives.

Safer Alternatives to Acetone for Industrial Applications

Companies across manufacturing, coatings, and chemical processing are actively seeking safer and more sustainable acetone substitutes that maintain performance without the health, safety, or compliance challenges. Several alternatives offer comparable solvency with lower toxicity, reduced flammability, and fewer regulatory burdens.

Methyl Acetate

Methyl acetate is a widely used acetone alternative due to its strong solvency, lower toxicity, and reduced flammability. It performs well in coatings, adhesives, and cleaning applications where fast evaporation and effective resin solubility are critical.

In addition to its technical performance, methyl acetate has a milder odor, which can improve working conditions in production environments. Its classification as a less hazardous material also simplifies storage, handling, and compliance in many industrial settings.

Bio-Based Solvent: VertecBio™ ELSOL® AR

VertecBio™ ELSOL® AR is a high-performance, bio-based solvent developed as a safe and sustainable acetone substitute. Formulated from renewable resources, it provides excellent solvency for applications such as paint, coatings, and ink formulations, without the health and environmental risks associated with traditional solvents.

This non-toxic, biodegradable solution contains no hazardous air pollutants (HAPs), ozone-depleting chemicals, or Proposition 65-listed substances. ELSOL® AR offers reliable performance in demanding industrial environments while helping companies reduce emissions and improve worker safety.

Usage and Environmental Benefits

In-house testing has found ELSOL AR to be 20-30 percent more efficient in viscosity reduction than acetone. It also has an excellent flow characteristic when in formulation, high loading capacity, and can be customized for maximum performance for your specific industry needs.

Environmentally speaking, ELSOL AR is easy and inexpensive to distill or recycle, 100% biodegradable to carbon dioxide and water, and has no environmentally hazardous ingredients. Additional environmental benefits of ELSOL AR include:

Carbon neutral
No ozone-depleting chemicals (ODCs).
Non-carcinogenic (not listed on California Proposition 65)
No hazardous air pollutants (HAPs)

Additional Alternatives for Acetone

Other acetone substitutes include mineral spirits , isopropyl alcohol (IPA), and dimethyl carbonate (DMC). Depending on the application, these solvents may offer acceptable performance, though often with trade-offs in evaporation rate, safety, or environmental impact.

While options like DMC show promise for cleaner formulations, few alternatives match the combined performance, safety, and sustainability of purpose-built bio-based solutions.

How to Choose the Right Acetone Substitute for Your Application

Selecting the right acetone alternative starts with understanding your application’s specific requirements, such as solvency strength, evaporation rate, compatibility with materials, and regulatory needs. Some operations may prioritize safety and compliance, while others focus on performance and efficiency in high-throughput environments.

VertecBio™ ELSOL® AR is well-suited for manufacturers who need a non-toxic, high-performing solvent that integrates easily into existing processes. Its customizable blends and proven effectiveness across coatings, inks, and cleaning applications make it a reliable choice for teams ready to move away from hazardous materials without compromising results.

Vertec BioSolvents: Superior Performance, Sustainable Technology

Vertec BioSolvents develops high-performance, bio-based alternatives to traditional solvents, including safe and effective options for replacing acetone. Manufactured in the U.S. using renewable resources, our products are designed to meet the demands of industrial applications while helping companies improve safety, reduce emissions, and meet sustainability goals.

If you're evaluating options for a safer, cleaner acetone substitute, our team is here to help you find the right solution for your application. Get in touch today to learn more .

VertecBio™ ELSOL® AR

VertecBio™ ELSOL® AR is designed as a high-performance, bio-based replacement for Acetone. It provides 20-30% better efficiency in viscosity reduction, is non-flammable, and contains no hazardous air pollutants (HAPs).

Solvent Users Look to Replace NMP Solvents

Mon, 17 Nov 2025 20:22:26 GMT

In 2017, the U.S. Environmental Protection Agency (EPA) proposed a usage ban for N-Methyl pyrrolidone, also known as NMP, due to its classification as a developmental toxicant. Primarily used in paint strippers, coatings, and adhesives, NMP is still widely used, as the proposal was shelved under pressure. However, more solvent users are continuing to replace NMP solvents on their own, making powerful and cost-effective alternatives even more important. Below, we will explore a few of the options and why you should consider them as viable replacements for your NMP solvents.

Why Solvent Users are Looking to Replace N-Methylpyrrolidone (NMP)

N-Methylpyrrolidone (NMP) has been widely used in coatings, adhesives, and paint strippers for its strong solvency. But growing concerns about its health and environmental risks are pushing many companies to find safer, more sustainable alternatives.

Solvent users looking to replace NMP solvents now have access to high-performing bio-based options that match or exceed the performance of traditional petrochemical products, without the regulatory or safety concerns.

Health Risks

NMP poses serious health concerns, particularly related to reproductive toxicity and long-term organ damage. Even short-term exposure can cause skin, eye, and respiratory irritation.

Reducing these risks is a key reason solvent users are seeking safer, more responsible alternatives .

Short-Term Acute Exposure

Even brief exposure to NMP can lead to serious health risks. According to the EPA , over 11,000 pregnant consumers and 160 pregnant workers are at increased risk of miscarriage or stillbirth each year due to NMP exposure. These risks may also impact future pregnancies and child development.

Short-term contact can also cause skin, eye, and respiratory irritation, raising immediate safety concerns in the workplace.

Long-Term Chronic Exposure

Prolonged or repeated exposure to NMP has been linked to several chronic health effects. These include reductions in body weight, kidney and liver toxicity, reproductive harm, and potential neurotoxicity.

Over time, continued use of NMP can pose serious risks to both workers and end users, making long-term exposure an important factor in the push for safer alternatives.

Safety Concerns

In addition to health risks, NMP poses several safety challenges in industrial environments. Its low flash point and ability to absorb through the skin increase the chances of accidents and unintentional exposure during routine handling.

Because of these factors, many companies are exploring solvent options that are easier to manage safely while still delivering reliable performance.

Regulatory Scrutiny

NMP continues to face increasing regulatory attention. Although a proposed EPA ban was delayed, the solvent remains under active review due to its toxicity profile.

Internationally, NMP is listed as a substance of very high concern (SVHC) under REACH regulations in the European Union, triggering usage restrictions and reporting requirements. Ongoing scrutiny makes it a potential liability for manufacturers that rely on global distribution or operate in tightly regulated industries.

Economic Benefits of Switching from NMP

Transitioning away from N-Methyl pyrrolidone (NMP) to safer alternatives offers compelling economic advantages. Companies can realize significant cost savings, improve operational efficiency, and enhance their environmental and social responsibility. Specifically:

Reduced costs in PPE

Avoid fines and penalties with environmental regulations

Stable pricing for bio-based solvents

Enhanced brand reputation

Are Other Groups Also Trying to Phase Out NMP?

While the EPA has delayed action on NMP solvents, many top retailers are working to halt the sale of these products. For example, Lowe’s and The Home Depot stopped selling paint strippers with NMP in 2018, and Sherwin-Williams no longer carries products with NMP. Additionally, the European Union currently places NMP on its restricted substance list.

Bio-Based Solvents as an NMP Alternative

Bio-based solvents are gaining traction as effective, safer alternatives to NMP. With strong solvency power and broad formulation compatibility, they help reduce exposure risks while meeting performance demands in industrial applications.

Solvent users looking to replace NMP solvents are increasingly choosing plant-derived options that align with evolving safety standards and sustainability goals. Vertec BioSolvents offers two solutions that make this transition simple and cost-effective.

Vertec Bio ELSOL NMPR

VertecBio ELSOL NMPR is a 100 percent biodegradable, non-carcinogenic solvent and an ideal NMP alternative for cleaning applications. It contains no hazardous air pollutants (HAPs), no environmentally hazardous ingredients, and no substances of concern.

This formulation is especially effective for cleaning polyurethanes and performs well in paints, coatings, and ink systems.

Vertec Bio ELSOL NMPRx3

VertecBio ELSOL NMPRx3 is a versatile bio-based solvent blend designed to replace NMP in a wide range of formulations. It offers excellent solvency for paints, coatings, and ink applications.

Custom blends are also available to ensure optimal performance for your specific needs.

Vertec Bio Solvents – Helping You Replace NMP and More

At Vertec BioSolvents, we’re committed to helping you transition to safer, high-performing solutions without compromising results. Our bio-based solvents meet the demands of industrial applications while promoting safer workplaces and sustainable operations.

If you're looking to replace NMP or eliminate other petroleum-based solvents, we provide alternatives that align with your technical needs and environmental goals. Contact us today to learn how we can help you move forward with confidence.

Propylene Glycol Methyl Ether Acetate: Applications, Effects, and Alternatives

Fri, 31 Oct 2025 18:29:02 GMT

Propylene Glycol Methyl Ether Acetate, known in industrial settings as PMA or PGMEA, is a common solvent used in coatings, inks, and electronics manufacturing. Its slow evaporation rate and strong solvency make it a practical choice in systems that require precision and compatibility across different resins.

As solvent regulations tighten and safety concerns rise, manufacturers are taking a closer look at how solvents like PMA affect both workers and the environment. Understanding what propylene glycol methyl ether acetate does, how it behaves, and what alternatives are available helps formulators make more informed decisions.

What is Propylene Glycol Methyl Ether Acetate?

Propylene Glycol Methyl Ether Acetate (PGMEA), also referred to as PMA solvent, is an organic compound belonging to the glycol ether family. It is derived from propylene oxide and acetic acid and is commonly classified as an ether acetate. Its chemical structure gives it a balance of polarity and volatility, which allows it to dissolve both polar and non-polar substances.

PMA is a clear, colorless liquid with a mild ether-like odor. It has a moderate evaporation rate and a relatively high boiling point, typically around 145°C. These characteristics make it valuable in applications that require extended working time or slower drying cycles. It is miscible with many organic solvents and has low surface tension, which enhances its ability to wet and penetrate surfaces.

Common abbreviations for propylene glycol methyl ether acetate include PGMEA, PMA, and 1-methoxy-2-propyl acetate. Its ability to bridge solubility gaps between waterborne and solvent-based systems gives it wide applicability across several industrial formulations .

Uses and Applications of Propylene Glycol Methyl Ether Acetate

PMA solvent appears in a wide range of formulations that rely on controlled evaporation, resin compatibility, and consistent film performance. Common industrial uses include:

Paints and Coatings: Solvent for acrylics, polyurethanes, and epoxies. Helps manage viscosity, application flow, and drying time.

Printing Inks: Improves stability and flow in both solvent-based and hybrid ink systems. Reduces clogging in high-speed equipment.

Semiconductor Manufacturing: Used in photoresist formulations and cleaning processes where high purity and precise evaporation are required.

Adhesives: Acts as a carrier solvent in systems that require slow drying and uniform film formation.

Wood Finishes and Automotive Refinishing: Enhances surface leveling and durability in specialty coating systems.

Its wide compatibility and reliable performance make PGMEA a preferred option in formulations that demand a balance of solvency and drying control.

Health and Safety Risks of PGMEA Exposure

Propylene glycol methyl ether acetate presents several occupational hazards that must be managed in industrial settings. Inhalation of vapors can cause respiratory irritation, dizziness, or headaches, particularly in poorly ventilated areas. Prolonged or repeated skin contact may lead to dryness or dermatitis, and high-level exposure can affect the central nervous system.

PGMEA is also classified as a potential reproductive toxin in some regulatory frameworks. This has led to increased scrutiny in workplaces where exposure levels are not consistently monitored or controlled. Personal protective equipment such as gloves, goggles, and respirators is often recommended during handling, especially in high-volume operations.

Workplace exposure limits have been established in many regions, and companies using PMA solvent must evaluate air quality and worker safety practices regularly. Safety data sheets (SDS) should be reviewed carefully to assess handling procedures, storage requirements, and first-aid protocols.

Environmental and Regulatory Considerations

Propylene glycol methyl ether acetate is classified as a volatile organic compound (VOC), which places it under regulatory limits in many regions. Its contribution to ground-level ozone and air pollution has led to restrictions on its use, particularly in products like paints , coatings, and industrial cleaners. Regulatory agencies such as the U.S. Environmental Protection Agency (EPA) and the European Chemicals Agency (ECHA) monitor and control its use under various chemical safety programs.

Spills or improper disposal of PMA solvent can lead to soil and water contamination. Although it degrades over time in the environment, its volatility means it can enter the atmosphere quickly, contributing to air quality concerns. Facilities that manufacture or use PGMEA at scale are often required to track emissions, use containment systems, and follow strict reporting procedures.

Increased focus on sustainable manufacturing and product stewardship has pushed many formulators to reassess the long-term use of VOC-heavy solvents like PMA. These pressures are shaping how products are developed, selected, and approved for use across industrial market s.

Bio-Based Substitutes for Propylene Glycol Methyl Ether Acetate

Replacing petroleum-derived solvents like PMA with bio-based alternatives is no longer limited to niche applications. Advances in green chemistry have produced solvent systems that match or exceed the performance of PGMEA, without the same health or regulatory concerns.

Vertec BioSolvents develops high-performance blends derived from renewable resources such as corn, soybeans, and citrus. These alternatives offer similar solvency strength, evaporation profiles, and resin compatibility , making them suitable drop-in options for coatings, inks, and cleaning formulations. Products like VertecBio™ Ethyl Acetate expand the range of substitutions depending on the required evaporation rate and solvent power.

Unlike traditional PMA solvents, Vertec’s substitutes are typically non-HAP, lower in VOCs, and often biodegradable. They are engineered to meet the demands of commercial manufacturing environments while reducing worker exposure and minimizing environmental impact. Formulators seeking to reduce risk without compromising product quality are turning to these bio-based options to support long-term compliance and sustainability goals.

Request a Sample of Vertec's PMA Solvent Substitute

Vertec BioSolvents offers renewable alternatives designed to match the performance characteristics of propylene glycol methyl ether acetate. If you're evaluating safer, compliant options for use in coatings, cleaners, or specialty formulations, our technical team can help identify the right solution for your application .

Request a sample to see how a bio-based PMA solvent substitute performs in your system. Our products are supported by detailed specifications, safety data, and application guidance to simplify testing and adoption.

To get started, contact us directly or fill out the sample request form .

Sustainable Alternatives to Petroleum-Based Plastics

Thu, 18 Sep 2025 14:11:58 GMT

What Are Petroleum-Based Plastics and Why Reduce Them?

Petroleum-based plastics are synthetic materials made from fossil fuels like crude oil and natural gas. They’re used in everything from packaging and textiles to electronics, automotive parts, and construction materials. Their durability, low cost, and versatility have helped make them one of the most common materials in the world.

But these advantages come with long-term consequences. Most petroleum-based plastics do not decompose. Instead, they break into smaller pieces that accumulate in soil, waterways, and living organisms. The process of making them also consumes significant energy and generates greenhouse gases.

Reducing the use of these plastics helps lower dependence on fossil fuels, decrease carbon emissions, and cut down on long-term waste. It also opens the door to safer, more sustainable materials that align better with both regulatory trends and consumer expectations.

Environmental Impact and Consumer Concerns

Public concern about plastic waste continues to grow, driven in part by the spread of microplastics in food, water, and the environment. Alongside pollution, there is more scrutiny of the health risks tied to plastic additives like BPA and phthalates, especially in food and personal care packaging.

This shift in awareness is reshaping expectations. Buyers now weigh environmental and health impact as part of product quality, and companies are adjusting material choices to match. Sustainability has become part of long-term value, not just short-term performance.

Industries Driving Demand for Alternatives

The move toward sustainable plastic alternatives is gaining traction across several key industries . Each sector brings its own requirements, but all share a common goal: reducing reliance on fossil-based materials without compromising performance.

Key Types of Sustainable Plastic Alternatives

Sustainable plastic alternatives fall into several categories, each designed to reduce environmental impact through different means. Some are made to break down more easily. Others are created from renewable resources or recycled inputs.

Biodegradable Plastics (PLA, PHA)

Biodegradable plastics are designed to decompose faster than traditional plastics, especially in industrial composting environments. PLA, made from corn or sugarcane, is common in packaging and food service items. PHA, produced through microbial fermentation, breaks down in soil and marine settings, making it useful for agriculture and single-use products. While they don’t degrade everywhere, these materials help reduce long-term plastic buildup.

Plant-Based Plastics (Starch- and Cellulose-Based)

These plastics are made from renewable plant sources like corn starch, sugarcane, or wood pulp. Starch-based plastics are often blended with other materials to improve strength and flexibility, while cellulose-based plastics offer clarity and durability for films and packaging. They help reduce fossil fuel use at the source and are often compostable under the right conditions.

Recycled and Upcycled Plastics

Recycled plastics use post-consumer or post-industrial waste to create new materials, reducing the need for virgin inputs. Mechanical recycling is common for PET and HDPE, while chemical recycling is expanding to handle mixed or contaminated streams. Upcycled plastics go a step further by converting waste into higher-value products. Both approaches extend material life and lower overall environmental impact.

Innovative Emerging Materials (Algae, Mycelium)

New materials made from algae and mycelium are gaining interest for their low-impact production and natural breakdown. Algae-based plastics are renewable and can absorb carbon during growth, making them attractive for packaging and disposable goods. Mycelium, the root structure of fungi, is being used to grow foam-like packaging and insulation. These materials are still in early stages but show strong potential for specialty applications.

Benefits and Challenges of Sustainable Plastics

Sustainable plastic alternatives offer clear environmental benefits, but they also come with performance trade-offs and cost considerations. Understanding both the advantages and limitations helps businesses make smarter decisions when evaluating new materials.

Environmental Advantages

Sustainable plastic alternatives reduce reliance on fossil fuels and cut greenhouse gas emissions during production. Many options also generate less waste at the end of life through composting, biodegradation, or recyclability. These materials help companies meet environmental goals and comply with shifting regulations focused on plastic reduction.

Performance and Cost Considerations

While sustainable plastics can lower environmental impact, they may not always match the durability or heat resistance of traditional plastics. Some require specialized processing or composting facilities. Costs can also be higher, especially for newer or bio-based materials. Businesses often need to balance sustainability goals with technical requirements and pricing models.

How Businesses Can Adopt Sustainable Plastics

Adopting sustainable plastics starts with evaluating how materials are used and where alternatives can fit. Some changes are simple, like swapping out packaging materials. Others may need testing and a gradual rollout.

A review of current plastic use often reveals areas where better options already exist. Working closely with trusted suppliers can speed up this process and help maintain quality standards. Even small material shifts can lead to meaningful reductions in waste and emissions .

The Role of Bio-Based Solvents in Supporting Sustainable Plastics

Bio-based solvents are used throughout the production and cleanup of sustainable plastics. They help dissolve, blend, and clean biopolymers without introducing hazardous chemicals. In recycling and upcycling, they replace petroleum-based solvents in separation and washing steps.

Vertec BioSolvents offers plant-based solutions already used in facilities working with biodegradable and recycled plastics . These products help meet safety standards, reduce chemical impact, and maintain compatibility with sensitive materials.

Choosing the Right Sustainable Plastic Alternative

Selecting the right material depends on how the plastic is used, how long it needs to last, and what happens to it at the end of its life. Some applications are a good fit for compostable options like PLA or PHA, while others benefit more from recycled or plant-based resins . Performance, cost, and compliance all factor into the decision.

For companies making the shift toward sustainable plastics, the materials are only part of the equation. The chemicals used during production and cleanup can also have a big impact.

If you're exploring sustainable plastic alternatives and need safer, more compatible solvents to support your process, we’d be happy to help. Reach out to our team or take a closer look at our product lineup to get started.

Guide to Sustainable Environmentally Friendly Adhesives

Tue, 19 Aug 2025 19:58:38 GMT

What are Sustainable Adhesives?

Sustainable adhesives, also known as eco-friendly or environmentally friendly adhesives, are bonding agents designed to lower environmental impact without sacrificing performance. They can be made from renewable resources like plant oils or starches, or developed using cleaner production methods that reduce hazardous emissions.

Instead of relying heavily on petroleum-based chemicals , these adhesives focus on safer ingredients and end-of-life options such as biodegradability, recyclability, or repulpability. Industries including packaging, construction, automotive, and electronics rely on them for strong bonds that also meet environmental priorities.

Types of Sustainable Adhesives

Sustainable adhesives come in several categories, each using a different approach to improve environmental performance. Some rely on renewable, plant-based ingredients. Others are designed for easier recycling, composting, or safer handling. Below are key types and how they fit into modern manufacturing needs.

Bio-Based Adhesives

Bio-based adhesives, or plant-based adhesives, use renewable resources such as corn, soybeans, or natural rubber to replace petroleum-derived components. They appear in applications ranging from packaging and wood composites to paper products and sustainable adhesive resin for composite manufacturing.

Vertec BioSolvents supports these adhesives by supplying bio-derived solvents that lower VOC emissions while maintaining performance in resin processing .

Water-Based Adhesives

Water-based adhesives use water as the main carrier, reducing VOC emissions and improving worker safety. Common applications include paper converting, packaging, woodworking, and textiles. They bond quickly as the water evaporates, but may lose performance in high humidity or prolonged moisture exposure.

Biodegradable Adhesives

Biodegradable adhesives are formulated to break down into natural elements through microbial activity in suitable environments. Often made from starch or plant-derived resins, they are used in packaging, disposable items, and some construction products. Matching the adhesive lifespan to the product’s intended use is important to balance durability and environmental benefits.

Compostable Adhesives

Compostable adhesives are made to break down into nutrient-rich material in industrial composting systems. They must meet strict standards to leave no harmful residue, which sets them apart from general biodegradable adhesives.

Common uses include food packaging and agricultural products intended for compost facilities. While they carry strong sustainability credentials, they may not perform well in high-moisture or extended-use settings .

Repulpable Adhesives

Repulpable adhesives dissolve in water during the paper recycling process, allowing fibers to be recovered without contamination. They are a frequent choice for labels, envelopes, and other paper-based products that enter recycling streams. Their composition supports higher-quality recycled pulp and reduces the need for waste separation.

Recyclable Adhesives

Recyclable adhesives are designed to be compatible with the recycling process of the materials they bond. They maintain strong adhesion during use but can be removed or processed without harming the base material. These are common in packaging, plastics, and electronics, where material recovery is a priority.

Solventless Adhesives

Solventless adhesives contain little to no liquid carrier, eliminating VOC emissions during application. They may be applied as hot melts, reactive systems, or UV-cured formulas. These adhesives are valued for strong bonds, fast curing, and reduced environmental impact, making them common in electronics, packaging, and automotive assembly.

Applications of Sustainable Adhesives

Sustainable adhesives are found in packaging lines, construction sites, automotive assembly plants, and electronics manufacturing. In each setting, their value comes from delivering durable bonds while contributing to environmental performance goals.

Packaging

Sustainable adhesives are widely used in corrugated boxes, cartons, labels, and flexible packaging. They can be formulated to allow recycling, composting, or safe disposal without affecting seal strength or shelf life. In food and beverage applications, they also help meet regulations on VOC levels and chemical safety.

Construction

In construction, sustainable adhesives bond flooring, panels, insulation, and other building materials. Formulations with low VOC content improve indoor air quality, while options using renewable or biodegradable components contribute to green building certifications. Some adhesives, including sustainable adhesive resin for composite panels, offer structural strength along with environmental benefits.

Disposable Hygiene Products

Adhesives in disposable hygiene items such as diapers, sanitary products, and medical dressings must be safe for skin contact and maintain integrity during use. Sustainable versions often use bio-based or compostable components, helping reduce landfill impact once the product is discarded. Consistent tack and flexibility are key performance factors in this category.

Paper Products

Paper products like books, envelopes, labels, and specialty packaging often rely on repulpable and recyclable adhesives. These options allow fibers to be recovered without contamination during recycling and must bond securely yet release cleanly during the repulping process to maintain paper quality.

Automotive

Automotive manufacturing uses adhesives for interior trim, upholstery, weatherstripping, and structural bonding. Sustainable options can reduce VOC emissions in production and incorporate bio-based or recyclable components. These adhesives must meet strict durability standards to withstand vibration, temperature shifts, and moisture over a vehicle’s lifespan.

Electronics

In electronics , adhesives secure components, provide insulation, and protect against moisture or dust. Sustainable formulations may replace hazardous solvents, reduce VOC emissions, or use recyclable chemistries that allow recovery of valuable materials during device recycling. Performance requirements include precise application, thermal stability, and long-term adhesion.

Benefits

Choosing sustainable adhesives can help manufacturers meet environmental goals while maintaining the bond strength, durability, and efficiency required in modern production. They also offer advantages in regulatory compliance, cost management, product performance, and workplace safety.

Choosing the Right Sustainable Adhesive for Your Needs

Selecting an adhesive involves weighing bond strength, cure time, application method, and environmental performance. Substrate type, operating conditions, and disposal requirements also influence the choice. Testing adhesives under real production conditions helps confirm that the product meets both performance and sustainability goals.

Vertec BioSolvents’ Role in Sustainable Adhesive Formulations

Vertec BioSolvents supplies bio-based solvents that replace petroleum-based options in resin processing, cleaning, and equipment maintenance. These solutions help reduce VOC emissions and are compatible with resin systems used in bio-based, biodegradable, recyclable adhesives, and even sustainable adhesive resin for composite materials.

Contact Vertec BioSolvents today to explore bio-based solvent solutions that can strengthen adhesive performance, reduce VOC emissions, and help you meet your sustainability targets .

The Rise of Biodegradable Bio-Based Synthetic Rubbers

Mon, 28 Jul 2025 21:07:37 GMT

What Are Bio-Based Synthetic Rubbers?

Bio-based synthetic rubbers are made from renewable raw materials like corn, sugarcane, and soy instead of petroleum. They’re engineered to perform like traditional synthetics but rely on plant-derived inputs to reduce fossil fuel use.

These rubbers use the same monomers found in conventional production, such as butadiene and isoprene. The key difference is that these building blocks come from biomass rather than crude oil. This allows manufacturers to maintain performance while moving toward lower-impact, more sustainable production methods.

How They Differ from Petroleum-Based Synthetics

The biggest difference lies in the source of raw materials. Petroleum-based synthetic rubbers start with crude oil, which is refined into chemicals like butadiene and isoprene. In contrast, bio-based versions use plant-derived feedstocks such as ethanol or sugars to produce the same monomers.

From a chemical standpoint, the end products can be nearly identical. That’s intentional. Manufacturers want to keep existing production lines and equipment, so compatibility is important. What changes is the carbon footprint and the renewability of the inputs.

In some cases, bio-based rubbers also open the door to enhanced biodegradability. While not all are biodegradable by default, newer formulations are being developed that can break down more readily under industrial composting or controlled disposal conditions. That makes them a better fit for applications where product lifespan is shorter or waste reduction is a focus.

Why the Rubber Industry Is Turning to Bio-Based & Biodegradable Solutions

Rising pressure to reduce emissions, manage waste, and secure long-term raw material supply is pushing the rubber industry to rethink its inputs. Petroleum prices remain volatile, and supply chains tied to fossil fuels carry growing risks. In response, producers are exploring alternatives that give them more control and flexibility.

Bio-based synthetic rubbers provide a path forward. They allow companies to keep performance levels high while cutting their reliance on non-renewable resources. Some of these materials are also designed to degrade faster in controlled environments, which supports waste reduction goals in industries like footwear, consumer goods, and packaging.

Government policies and customer expectations are also shaping this shift. Regulations are tightening around chemical use and end-of-life waste. At the same time, more buyers are asking for products made from renewable sources. This combination is driving research, investment, and real-world adoption of biodegradable and bio-based rubber solution s.

From Natural Resources to Synthetic Rubbers: What’s Changing?

Synthetic rubber has traditionally depended on fossil fuels. Now, more producers are turning to renewable feedstocks like sugars and oils from plants. The chemical structure remains largely the same, but the shift in raw materials is changing how rubber is made and where its impact is felt.

What Natural Resources Are Used to Make Synthetic Rubber Today?

Today’s synthetic rubber can be made using renewable feedstocks such as sugarcane, corn, soybean oil, and other bio-based materials. These resources are converted into monomers like isoprene, butadiene, or styrene through fermentation, dehydration, or catalytic processing.

For example:

Sugarcane and corn produce ethanol, which can be transformed into bio-butadiene or bio-isoprene.
Soybean oil and other vegetable oils are used to create additives or softening agents that improve flexibility and durability.
Glycerol, a byproduct of biodiesel production, is also being explored as a building block for new rubber chemistries.

The result is a growing supply of synthetic rubbers that don’t rely on crude oil, yet still meet the performance standards required in tires, seals, footwear, and adhesives.

The Importance of Renewable Feedstocks and Circular Design

Switching to renewable feedstocks is more than a sourcing decision. It reshapes how rubber materials fit into long-term sustainability goals. Using plant-based inputs reduces dependence on petroleum and creates the potential for lower lifecycle emissions.

These changes also support circular production models. When rubber is made from renewable carbon, it becomes easier to integrate into systems that prioritize reuse, recycling, or controlled biodegradation. This is especially important for high-volume products like tires, belts, and gaskets, where waste can quickly scale.

Circular design doesn't only focus on end-of-life. It also considers how materials behave during manufacturing, how long they last in use, and what happens to them afterward. Bio-based rubbers built from renewable sources are helping manufacturers rethink each step of the process.

The Role of Green Solvents and Bio-Based Chemicals in New Rubber Formulations

Developing more sustainable rubber materials doesn’t stop at the polymer itself. The additives, carriers, and solvents used during production also influence the environmental profile of the final product.

Green solvents made from renewable ingredients are increasingly replacing traditional petrochemical-based options in compounding and cleanup. These alternatives help reduce VOC emissions, improve workplace air quality, and align with low-toxicity formulation goals. Their performance matches conventional solvents in mixing, blending, and processing, without relying on hazardous chemicals.

Alongside solvents, bio-based additives like plasticizers, stabilizers, and curing agents are being used to fine-tune properties such as flexibility, strength, and thermal resistance. As demand grows for fully or partially renewable rubber systems, these secondary components are becoming just as important as the rubber itself in achieving lower-impact productio n.

How Vertec BioSolvents Empowers Sustainable Rubber Manufacturing

Vertec BioSolvents provides high-performance, plant-based solvents that help rubber manufacturers reduce reliance on petroleum chemicals. These solvents are used during production for cleaning, formulation, and material handling.

Made from renewable sources like corn, soy, and citrus, Vertec’s products deliver strong solvency while lowering VOC emissions and exposure risks. They’re well-suited for operations focused on safer working conditions, improved air quality, and more sustainable sourcing.

In rubber manufacturing, where solvent use is frequent and performance matters, Vertec’s solutions offer a reliable, low-impact alternative. Their compatibility with existing equipment and processes makes adoption straightforward, without sacrificing efficienc y.

The Future of Bio-Based Synthetic Rubbers

Bio-based synthetic rubbers are moving beyond early adoption and into mainstream production. Backed by advances in renewable chemistry and processing, they’re now meeting performance standards across automotive, industrial, and consumer applications.

As raw material technology continues to evolve, manufacturers are gaining access to more reliable, lower-impact options. Paired with bio-based solvents and additives, the shift toward fully renewable rubber systems is becoming more practical and scalable.

Vertec BioSolvents plays a key role in this transition. Our solvents help manufacturers reduce emissions, improve safety, and align rubber production with long-term sustainability goals. To explore how our products can fit into your operation, contact us toda y.

Solvent-Based Recycling: Breaking Down Plastics Sustainably

Mon, 23 Jun 2025 17:50:42 GMT

As global plastic production continues to rise, the limitations of traditional recycling methods have become increasingly apparent. In response, solvent-based recycling is emerging as a promising alternative. This innovative process uses solvents to break down plastics more effectively, opening the door to cleaner, more sustainable recovery. Organizations like Vertec BioSolvents are helping lead the charge with advanced green solvent technologies .

What Is Solvent-Based Recycling and How Is It Different from Other Methods?

Solvent-based recycling uses solvents to dissolve plastic waste and separate pure polymers from additives, dyes, and contaminants. This approach preserves the quality of the plastic, unlike mechanical recycling, which often degrades the material through repeated melting and reshaping.

Compared to chemical recycling, which breaks plastics down into monomers using high heat or catalysts, solvent-based recycling is simpler and less energy-intensive. It focuses on three core steps, dissolution, solubilization, and purification, that allow for efficient recovery without destroying the polymer.

This method offers a cleaner, more targeted solution for recycling complex or contaminated plastics.

Why Solvent-Based Recycling Is Gaining Attention

Solvent-based recycling is drawing attention for its ability to recover overlooked plastics, support circularity, and meet rising sustainability demands.

Problem with Traditional Plastic Recycling

Most traditional recycling relies on mechanical methods that degrade plastic quality with each cycle. Contamination, mixed materials, and the presence of additives often make these plastics unrecyclable or result in lower-grade products. Chemical recycling, while more flexible, is energy-intensive and expensive to scale.

These limitations have led to low recycling rates globally, with much of the plastic waste either landfilled, incinerated, or exported. The system lacks efficiency and consistency, especially when dealing with complex or multi-layer plastics.

Solvent Recycling’s Role in a Circular Economy

Solvent-based recycling supports a circular economy by enabling the recovery and reuse of high-quality polymers from plastic waste. Instead of downcycling or discarding materials, this method helps keep plastics in circulation longer, reducing the need for virgin feedstock.

By separating polymers from fillers, dyes, and contaminants, solvent-based processes allow manufacturers to reclaim material that can meet original performance standards. This closed-loop approach aligns with broader industry goals for waste reduction and sustainable resource use.

Demand for More Efficient, Scalable Plastic Solutions

The global push for better recycling outcomes has intensified the search for solutions that are both effective and scalable. Industries are looking for processes that can handle diverse plastic types, minimize waste, and operate within existing manufacturing systems.

Solvent-based recycling answers this call with its ability to target specific polymers, work with contaminated or complex plastics, and integrate into various production environments. As regulations tighten and sustainability benchmarks rise, the need for adaptable and high-yield recycling methods continues to grow.

How the Solvent-Based Recycling Process Works

This process uses solvents to dissolve plastics, isolate pure polymers, and remove unwanted materials for reuse.

Types of Solvents Used in Plastic Dissolution

The effectiveness of solvent-based recycling depends largely on the choice of solvent. Different plastics require different solvent chemistries to dissolve effectively without damaging the polymer chains. Common options include organic solvents such as esters, alcohols, and hydrocarbons, which are selected based on their ability to target specific polymer types.

Vertec Biosolvents specializes in green solvents derived from bio-based and biodegradable sources, offering sustainable alternatives to traditional industrial solvents. These solvents aim to improve process efficiency while reducing environmental impact, making them ideal for scalable and sustainable recycling systems.

Handling of Additives, Fillers, and Contaminants

One of the key strengths of solvent-based recycling is its ability to separate pure polymers from additives, fillers, and other unwanted materials. During the dissolution stage, the solvent selectively targets the plastic, leaving behind pigments, flame retardants, and other contaminants.

These byproducts can then be filtered out or processed separately, resulting in a cleaner recycled material.

What Plastics Can Be Recycled Using Solvents?

Solvent-based recycling works best with thermoplastics, which can be repeatedly softened and reformed. Common targets include polyethylene (PE), polypropylene (PP), polystyrene (PS), and polyethylene terephthalate (PET). These materials are widely used in packaging, textiles, and consumer goods.

Certain high-performance plastics used in electronics and automotive parts can also be processed, depending on their composition and the solvents applied.

Sustainability and Safety Considerations

Solvent-based recycling becomes more sustainable when paired with renewable, low-toxicity solvents that reduce emissions and environmental impact. These solvents also improve safety in industrial settings by lowering exposure risks and simplifying compliance. Vertec BioSolvents develops solutions that meet both environmental and operational standards, making the process cleaner and safer from end to end.

Real-World Applications and Industry Use Cases

Solvent-based recycling is being adopted in sectors where material purity and performance are critical. Packaging manufacturers use it to recover high-quality polymers from multi-layer films. In electronics, it helps extract valuable plastics from complex assemblies without damaging sensitive components. The automotive and textile industries also benefit, reclaiming durable materials that would otherwise go to waste.

These applications demonstrate the versatility of solvent-based methods and their growing role in commercial recycling strategies .

The Role of Green Solvents in Plastic Recycling

Green solvents are essential to making solvent-based recycling a long-term solution. Derived from renewable sources like corn, soy, and citrus, these solvents offer the performance needed for industrial recycling without the environmental costs of traditional petrochemical options.

Vertec BioSolvents is at the forefront of this shift, offering high-efficiency, bio-based solvents that support clean plastic recovery and responsible manufacturing. Their solutions are engineered for compatibility, safety, and sustainability, helping businesses meet both performance and environmental goals.

Ready to integrate green solvents into your recycling processes?

Explore Vertec BioSolvents' product line or contact us today to learn how our solutions can support your sustainability goals.

Alternatives for Removing Epoxy Resins in Industrial Settings

Tue, 20 May 2025 15:23:57 GMT

Epoxy resin is valued in industrial settings for its strength, durability, and chemical resistance. It’s used in everything from protective coatings to composite parts and flooring. But once it cures , removing it becomes a complex task. Traditional methods often rely on harsh chemicals or abrasive techniques that can pose risks to workers and the environment. As regulations tighten and sustainability becomes a priority, safer and more effective alternatives are in demand.

Where Epoxy Resin Is Used in Industrial Operations

In industrial operations , epoxy resin supports a wide range of applications that require long-term reliability and resistance to challenging environments.

It’s widely used in:

Protective Coatings: Applied to metal and concrete surfaces in factories, chemical plants, and processing facilities.

Composites and Moldings: Used in aerospace, automotive, and marine sectors for lightweight, load-bearing components.

Adhesives: Common in electronics, construction, and assembly lines, where a permanent bond is critical.

Flooring Systems: Found in self-leveling and anti-slip floor coatings that withstand heavy traffic and harsh cleaning agents.

Encapsulation and Potting: Shields electrical components from moisture, debris, and vibration.

These applications often require periodic maintenance or rework, which means cured epoxy must be removed without damaging the underlying surface or equipment.

Why Removing Epoxy Resin Is Challenging

Once epoxy cures, it forms a rigid, crosslinked structure that resists moisture, heat, and most solvents. This makes removal especially difficult.

It often bonds deep into surfaces like metal or concrete, or hardens around sensitive components. Without the right approach, removal can damage equipment or waste time and labor.

The process is often done under tight timelines and in limited ventilation, which makes harsh chemicals and labor-intensive methods both risky and inefficient.

Traditional Methods to Remove Epoxy Resin

Most removal techniques fall into two categories: mechanical and chemical. Each has its own challenges, especially when dealing with fully cured epoxy.

Mechanical Removal

(Grinding, Sanding, Scraping)

Grinding, sanding, and scraping are common ways to remove cured epoxy by physically breaking it down. These methods can be effective on flat, accessible surfaces, but often struggle with detailed parts or sensitive equipment.

They’re labor-intensive, can damage the underlying material, and generate dust and debris that may pose safety risks or require extra cleanup.

Chemical Solvents Used Historically

(Acetone, Methylene Chloride, etc.)

Solvents like acetone, methylene chloride, toluene, and xylene have been used to soften or dissolve cured epoxy. They can be effective, especially in tight or detailed areas.

But many are flammable, toxic, or regulated as hazardous air pollutants. They require strict safety protocols, proper ventilation, and careful disposal, which adds risk and complexity to the process.

The Downsides of Traditional Epoxy Removal Methods

Traditional epoxy removal methods often sacrifice safety and efficiency for results. Mechanical tools can damage surfaces, release dust into the air, and require intensive labor. Chemical solvents may pose fire hazards, expose workers to harmful fumes, and complicate compliance with environmental regulations.

Many of these products contain volatile organic compounds (VOCs) or hazardous air pollutants (HAPs), which degrade air quality and present long-term health risks. As safety standards rise and sustainability becomes a priority, these methods are harder to justify, even when they are effective.

What Really Works to Dissolve Epoxy Resin?

To effectively remove cured epoxy, the solvent must be able to penetrate and disrupt the resin’s dense, crosslinked structure. Most general-purpose cleaners won’t cut it. Instead, the solution needs to match the chemical profile of the epoxy, softening it without damaging the surface beneath.

Solvents with strong solvency power, appropriate evaporation rates, and minimal surface residue offer the best results. The key is finding one that performs without introducing health hazards or compliance risks, especially in confined work areas or regulated environments.

A Safer Alternative: Bio-Based Solvents That Break Down Epoxy

Unlike petroleum-based solvents, bio-based options are formulated from naturally derived ingredients such as soy methyl esters, corn alcohols, and citrus terpenes. These compounds are selected for their ability to break molecular bonds in cured resins while being safer to store, use, and dispose of.

What sets bio-based solvents apart is their combination of strong solvency and low toxicity. Their chemical structure allows them to soften epoxy without the sharp fumes, skin irritation, or flammability associated with traditional solvents. This makes them a reliable choice for resin removal in facilities focused on health, safety, and environmental responsibility .

How Bio-Based Solvents Compare to Traditional Solvents

Bio-based solvents offer a high-performance alternative to traditional options like acetone and methylene chloride, without the safety or regulatory concerns. They provide the strength needed to break down cured epoxy while minimizing health risks for workers.

Unlike conventional solvents, which often evaporate quickly or release harmful fumes, bio-based formulations typically allow for longer working times and safer handling. They help reduce exposure to VOCs and HAPs, making it easier to meet environmental and workplace safety standards. With comparable effectiveness and fewer tradeoffs, bio-based solutions are becoming the preferred choice for forward-looking operations.

Why Vertec BioSolvents Are a Smart Fit for Epoxy Removal

Vertec BioSolvents offers a range of high-performance, bio-based solvents designed for industrial cleaning and resin removal. These products deliver the solvency power needed to break down cured epoxy while reducing reliance on hazardous chemicals.

Formulated without HAPs and with low VOC content, Vertec solvents support cleaner air, safer work environments, and easier compliance with regulatory standards. They perform effectively, fit easily into existing workflows, and are made from renewable materials. This gives industrial teams the cleaning strength they need while aligning with sustainability goals.

If you're looking for a safer, more sustainable way to remove epoxy resin, Vertec BioSolvents can help. Contact us today to request a sample or speak with a technical specialist about the right solution for your operation .

Safer Alternatives to IPA for Resin 3D Printing Cleanup

Tue, 13 May 2025 15:00:08 GMT

Resin 3D printing delivers high detail and accuracy, but cleaning printed parts remains a challenge. Many professionals still rely on isopropyl alcohol (IPA) and other aggressive chemicals that raise safety, environmental, and regulatory concerns. As the industry evolves, safer and more sustainable cleaning options are becoming a priority.

Different Types of Resin 3D Printer Cleaning Solutions Used

Several solvents are commonly used to clean uncured resin from 3D printed parts. Each comes with its own strengths, drawbacks, and safety considerations. Below is a look at the most frequently used options in the industry.

Isopropyl Alcohol (IPA)

IPA is the most widely used solvent for cleaning resin prints due to its availability, affordability, and effectiveness in dissolving uncured resin. It quickly breaks down liquid resin from printed parts and is compatible with most cleaning stations. However, it is highly flammable, emits strong fumes, and poses health risks with prolonged exposure. Its effectiveness also diminishes over time as it becomes saturated with resin.

Ethyl Acetate (EA)

Ethyl acetate is a fast-evaporating solvent that can effectively clean resin prints. It is less flammable than IPA and has a slightly lower toxicity profile, but it still requires proper ventilation and the use of personal protective equipment (PPE), such as gloves and respirators. EA can also degrade some plastics over time, making it less suitable for cleaning delicate parts or equipment components.

Denatured Alcohol

Denatured alcohol is ethanol blended with additives to make it unfit for consumption. It's often used as a cleaning agent for resin prints due to its strong solvent properties. While effective, it shares many of the same safety concerns as IPA, including flammability and harmful fumes. It also tends to dry out the skin and can cause irritation with repeated exposure, requiring the use of gloves and eye protection.

Acetone

Acetone is a powerful solvent that can dissolve uncured resin quickly, but it is generally too aggressive for most resin prints. It can damage printed parts, cloud surfaces, and degrade plastic components of cleaning equipment. Highly flammable and known for its strong fumes, acetone also poses significant health and safety risks, especially in poorly ventilated areas.

Water-Based Household Cleaners for Cleaning Resin Prints

Water-based household cleaners are sometimes used as a non-flammable alternative for resin cleanup. While it is safer to handle than solvents like IPA or acetone, it is not as effective at breaking down uncured resin. Prints often require longer soak times or additional scrubbing, which can slow down production and reduce consistency in post-processing.

Why IPA Is Most Commonly Used for Resin Printing Cleanup

IPA has become the default cleaning solvent for resin 3D printing because it strikes a balance between cost, availability, and cleaning power. It dissolves uncured resin quickly and evaporates without leaving a residue, making it convenient for post-processing workflows. IPA is also widely compatible with automated wash stations, which adds to its appeal in professional settings.

Despite these advantages, growing concerns around workplace safety, air quality, and hazardous waste disposal have many professionals looking for safer alternatives .

Why Move Away from IPA and Other Harsh Chemicals?

While solvents like IPA, acetone, and denatured alcohol are effective, they come with serious tradeoffs . These include health risks for workers, environmental hazards , and increasing regulatory scrutiny. As safety and sustainability become higher priorities, many in the 3D printing industry are rethinking their cleanup processes.

Health and Safety Risks

Many common solvents used in resin cleanup are flammable and produce harmful fumes. Prolonged exposure to vapors from IPA, acetone, and denatured alcohol can lead to headaches, respiratory irritation, skin damage, and long-term health effects. Frequent handling without proper ventilation or protective gear increases the risk of accidents and chronic exposure in the workplace.

Environmental Impact

Petroleum-based solvents contribute to air and water pollution during use and disposal. Many are classified as volatile organic compounds (VOCs), which release harmful emissions into the atmosphere. Improper disposal can contaminate water systems and soil, while even compliant disposal adds to hazardous waste volumes. As sustainability goals become more central, reducing reliance on these chemicals is a growing priority.

Compliance and Regulatory Considerations (OSHA, EPA)

Workplace safety standards from OSHA and environmental regulations from the EPA place increasing pressure on manufacturers to minimize exposure to hazardous chemicals. Solvents like IPA and acetone are subject to strict handling, storage, and disposal requirements. Companies that fail to comply risk fines, operational disruptions, and damage to their reputation. Safer alternatives can help reduce regulatory burdens while supporting EHS initiatives.

Why Move Away from IPA and Other Harsh Chemicals?

An effective replacement for IPA should offer strong cleaning performance without the health, safety, and environmental risks. Key traits include high resin solvency, low toxicity, non-flammability, and compatibility with existing wash systems. It should also meet regulatory requirements and align with sustainability goals, helping companies reduce hazardous waste and improve air quality without sacrificing efficiency.

Vertec BioSolvents: Your Safer Solution for 3D Printing Cleanup

Vertec BioSolvents offers bio-based alternatives that match the performance of traditional solvents while significantly reducing risk. Formulated from renewable resources like corn and soy, these solvents are non-toxic, low in VOCs, and readily biodegradable. They are designed to work seamlessly in resin 3D printing cleanup, providing effective resin removal without compromising worker safety or environmental standards.

With Vertec BioSolvents, professionals can clean with confidence , knowing their process is safer, compliant, and more sustainable.

Best Practices for Cleaning Resin 3D Prints with Bio-Based Solvents

To get the best results when using bio-based solvents , start by removing excess resin from the print using a soft brush or paper towel. Submerge the part in a solvent bath and agitate gently to help loosen the remaining resin. For larger batches or production environments, automated wash stations can be used with compatible bio-based formulations.

Always follow the manufacturer’s guidelines for soak times and solvent life. Use protective gloves and ensure good ventilation, even with low-toxicity options. After cleaning, rinse the part with clean solvent or water if recommended, then cure as usual.

Make the Safer Switch Today

Traditional solvents like IPA come with serious tradeoffs. Vertec BioSolvents offers bio-based alternatives that are safer for workers, better for the environment, and highly effective at cleaning resin prints. By making the switch, you can improve safety, reduce regulatory risk, and support more sustainable operations.

Explore Vertec BioSolvents’ solutions and upgrade your cleanup process with confidence.

VertecBio™ Clean ECO-Solv

VertecBio™ Clean ECO-Solv is designed as a bio-based replacement for Isopropyl Alcohol. It offers high resin solvency, leaves no residue, and is non-toxic and non-carcinogenic.

VertecBio™ EL

VertecBio™ EL is a versatile bio-based solvent that provides excellent cleaning for resins, coatings, and inks. It is a core component of many of our cleaning formulations due to its high loading capacity.

VertecBio™Gold #1

VertecBio™Gold #1 is a patented blend of vegetable esters (soy and corn) with a high concentration of ethyl lactate. It is effective for heavier resin removal and is a safer alternative to more aggressive petrochemical solvents like xylene or toluene.

Traditional vs Bio-Based Resin: Comparing the Alternatives

Tue, 06 May 2025 15:00:02 GMT

Written by: Vertec BioSolvents

Resins are essential building blocks in coatings, adhesives, composites, and encapsulation materials used across industrial manufacturing. For decades, petroleum-based resins have dominated the landscape, but that dominance is being challenged. Supply chain disruptions, rising environmental standards, and a growing push for renewable inputs are prompting manufacturers to rethink what’s in their resin systems.

Bio-based resins , made from renewable feedstocks like corn, soy, and plant oils, are proving they can match the performance of traditional resins (without the fossil fuel footprint). For manufacturers aiming to reduce their reliance on petrochemicals, today’s plant-based alternatives offer a reliable and forward-thinking path forward.

Both traditional and bio-based resins have their strengths, but bio-based options offer key advantages: lower environmental impact, easier regulatory compliance, and greater supply chain resilience.

What Are Traditional Petroleum-Based Resins?

Traditional petroleum-based resins are synthetic polymers derived from crude oil. Commonly used as binders, adhesives, or film-formers, they play a central role in products like paints, coatings, composites, and insulation materials. These resins are valued for their strength, durability, and ability to perform under extreme conditions.

Widely used types include epoxy, polyurethane, polyester, and vinyl resins. Each one offers distinct performance characteristics, such as chemical resistance, flexibility, or thermal stability, tailored to specific industrial applications. They are typically produced through chemical processes like polymerization or condensation, using petrochemical feedstocks such as ethylene, propylene, and benzene.

While these materials have a long track record of reliable performance, they also present significant drawbacks. Their dependence on fossil fuels, combined with the environmental and health risks associated with their production and use, is pushing many manufacturers to explore better alternatives.

Challenges of Traditional Resins: Environmental and Safety Concerns

The production and use of petroleum-based resins raise a range of environmental and safety concerns that can’t be overlooked. Manufacturing these resins requires fossil fuel inputs, which contribute to greenhouse gas emissions, air pollution, and depletion of non-renewable resources. Many of the chemicals involved are hazardous, demanding careful handling, specialized equipment, and strict regulatory compliance.

In use, some resin systems release volatile organic compounds (VOCs) that can compromise air quality and pose risks to workers. Disposal is equally challenging. These resins are not biodegradable and may persist in landfills or contaminate ecosystems if improperly discarded.

In industrial environments, exposure to reactive ingredients such as isocyanates or styrene introduces additional health risks. Managing these hazards adds complexity to operations and increases costs related to compliance, safety training, and protective protocols. These issues are fueling a growing demand for resin systems that deliver high performance with fewer environmental and health trade-offs.

What Is Bio-Based Resin?

Bio-based resin is a polymer system made from renewable raw materials such as corn, soy, castor oil, or other plant-derived feedstocks. These resins are designed to perform similarly to petroleum-based versions while lowering environmental impact. Rather than relying on fossil fuels, bio-based resins use naturally sourced inputs to create polymers that serve as binders, adhesives, or structural materials. They are increasingly used in industrial formulations where sustainability targets are driving material changes.

How Bio-Based Resins Are Made

Bio-based resins are created through similar chemical processes as traditional resins, including polymerization and curing. The key difference lies in the feedstock. Instead of petrochemicals, manufacturers use sugars, oils, or starches extracted from renewable crops. These inputs are refined into bio-based monomers or additives, then formulated into resins that match conventional performance standards.

Common Applications of Bio-Based Resins

Bio-based resins are used across industries where synthetic resins have been standard for decades. These include paints and coatings, adhesives, automotive parts, electronics encapsulation, and construction materials. In each of these settings, bio-based resin formulations offer comparable mechanical strength, thermal resistance, and curing behavior, making them suitable replacements in both new and existing product lines.

Comparing Traditional vs. Bio-Based Resins

Both traditional and bio-based resins offer unique advantages, but the decision to switch often comes down to how they stack up in key areas like performance, production, cost, and environmental outcomes. Understanding these differences helps manufacturers choose the right fit for their applications and sustainability goals.

Performance & Durability

Bio-based resins have closed the gap in performance, offering strength, flexibility, and thermal resistance that closely match petroleum-based options. In some cases, they even exceed them—especially in moisture resistance and chemical stability. The right bio-based formulation can handle demanding environments without compromising durability.

Manufacturing & Formulation

Traditional resins benefit from decades of established infrastructure, but bio-based resins are increasingly compatible with existing production processes. Manufacturers can often substitute bio-based materials into current workflows without major equipment changes. Custom blends also give formulators more control over curing speed, viscosity, and hardness.

Cost & Scalability

Bio-based resins can carry a slightly higher upfront cost, depending on the feedstock and volume. However, growing demand, improved sourcing, and greater supply chain stability are helping scale production and reduce price volatility compared to petrochemical resins.

Environmental Impact

Bio-based resins significantly reduce carbon footprint and reliance on fossil fuels . Their renewable feedstocks and lower emissions make them a more sustainable choice.

While the resin base is critical, the solvents used in formulation and processing also play a major role in shaping performance and sustainability. This is where bio-based solvents make a measurable difference.

How Bio-Based Solvents Improve Sustainable Resin Formulations

Bio-based solvents help improve the overall sustainability of resin formulations. They serve the same functions as traditional petroleum-based solvents, functions like thinning, dissolving, and cleaning, but they come from renewable sources like corn, soy, or citrus. This shift away from fossil inputs supports lower emissions, fewer hazardous air pollutants, and better compliance with evolving environmental standards.

In resin systems, bio-based solvents offer strong performance across epoxy, polyurethane, and acrylic chemistries. They maintain the solvency power needed for effective formulation and processing while reducing exposure risks for workers and minimizing impact during disposal. Used during production or cleanup, these solvents support safer, cleaner operations and make it easier for manufacturers to build high-performance resins using renewable components.

Future of Bio-Based Resins

Bio-based resins are gaining traction as manufacturers look for dependable, lower-impact materials that align with changing market demands. Advances in feedstock processing, polymer chemistry, and supply chain logistics are making it easier to match or exceed the performance of traditional resins.

As sourcing improves, costs continue to stabilize, making these resins more viable at scale. Regulatory shifts and customer expectations are also pushing product developers to explore cleaner material options. What once was seen as a specialty solution is becoming a mainstream alternative. The future points toward broader adoption across coatings, adhesives, composites, and beyond.

Choose Vertec BioSolvents for Bio-Based Resin Solutions

Switching to bio-based resins doesn’t have to mean compromising on performance, reworking production lines, or inflating your budget. With the right partners and materials, it becomes a straightforward upgrade… one that improves environmental outcomes and supports long-term supply stability.

Vertec BioSolvents supplies the bio-based solvents that help resin systems meet both performance and sustainability goals. Our formulations are engineered for compatibility, ease of use, and regulatory compliance, making them a reliable choice for manufacturers looking to reduce fossil fuel content in their resin products.

If you're developing or sourcing resin systems built for the future, Vertec is ready to help.

Petroleum-Based Solvents: Types, Risks, and Alternatives

Tue, 29 Apr 2025 15:00:14 GMT

Petroleum-based solvents are widely used across manufacturing, industrial cleaning, coatings, adhesives, and chemical processing. Known for their strength, speed, and broad material compatibility, these solvents have long been a go-to solution for companies that need consistent performance in demanding environments.

However, that reliability comes at a cost. Many petroleum-derived solvents present significant safety concerns, pose health risks to workers, and contribute to long-term environmental harm. As a result, manufacturers and chemical formulators are starting to take a closer look at the ingredients in their processes. Many are now actively seeking safer and more sustainable alternatives.

Bio-based solvents deliver comparable performance without the health hazards or environmental impact. For companies looking to reduce petroleum dependency without compromising efficiency, they offer a practical and forward-thinking solution.

What Are Petroleum-Based Solvents?

Petroleum-based solvents are organic compounds refined from crude oil. They are primarily made up of hydrocarbons, which are molecules composed of hydrogen and carbon atoms. These solvents are categorized into groups such as aliphatic, aromatic, and oxygenated, based on their chemical structure and functional properties. Each category brings distinct characteristics in terms of solvency power, evaporation rate, and compatibility with various materials.

In manufacturing and industrial processes, petroleum solvents serve as dissolving agents, carriers, and cleaning components. They are used to thin paints and coatings, dissolve adhesives, clean equipment, extract oils, and remove contaminants. Their effectiveness in breaking down grease, oil, and resins has made them a common choice across multiple sectors, including automotive, aerospace, printing, and chemical production.

Since they originate from non-renewable fossil resources, many petroleum solvents contain volatile organic compounds (VOCs) and hazardous air pollutants (HAPs). These substances can evaporate quickly, creating health and safety concerns, especially in enclosed or poorly ventilated environments. Exposure limits, flammability ratings, and environmental compliance regulations are increasingly influencing how and where these solvents can be used.

Companies are increasingly seeking next-generation solvents that minimize worker exposure, lower VOC content, and support long-term environmental goals without compromising reliability.

Types of Petroleum-Based Solvents

Toluene

An aromatic solvent used in adhesives, coatings, and chemical synthesis. Known for fast evaporation and strong solvency, but also linked to neurological effects from prolonged exposure.

Xylene

Often used in paints, inks, and cleaning agents. It offers moderate evaporation and strong solvency, particularly for resins and polymers.

Mineral Spirits

A common aliphatic solvent in degreasers, thinners, and cleaning products. Less volatile than aromatic solvents, but still flammable and toxic.

Benzene

Historically used in industrial formulations but largely phased out due to its high toxicity and strong link to cancer. Still found in trace amounts in some formulations.

Hexane

Frequently used in extraction processes and industrial degreasing. High volatility and low flash point make it a significant safety concern.

Heptane

Preferred for rubber cement, adhesives, and lab use. It evaporates quickly and is less toxic than hexane, though still highly flammable.

Turpentine

Derived from pine resin, technically not petroleum-based but often grouped with them. Used in paints and varnishes, with strong odor and flammability.

Ethyl Acetate

A fast-evaporating solvent used in coatings, nail polish removers, and printing inks. Flammable and irritating to skin and lungs.

VM&P Naphtha

Used in varnishes, cleaning, and degreasing. Highly volatile and produces strong fumes. Regulated due to VOC content.

Acetone

A versatile solvent in cleaning, coatings, and plastics. Very fast evaporation rate, highly flammable, and harsh on skin.

Methyl Ethyl Ketone (MEK)

Used in coatings, adhesives, and inks. Strong solvency power and fast evaporation. Can cause eye and respiratory irritation.

Cyclohexane

Common in adhesives and chemical manufacturing. Flammable and potentially harmful through inhalation.

Isopropyl Alcohol (IPA)

Widely used in disinfectants, cleaners, and electronics. Lower toxicity than many others, but still flammable and drying to skin.

Butyl Acetate

Found in lacquers and coatings. Moderate evaporation with a fruity odor. Flammable and irritating with high concentrations.

Tetrahydrofuran (THF)

Used in PVC production and specialty coatings. Very effective but prone to forming explosive peroxides during storage.

Risks and Safety Considerations of Petroleum-Based Solvents

Handling petroleum-based solvents requires more than just protective gear. These substances often carry serious hazards that impact worker safety, facility protocols, and long-term regulatory compliance. The physical and chemical characteristics that make these solvents effective, such as volatility and solvency strength, are also what make them potentially dangerous in uncontrolled environments.

Safety Concerns (i.e. Flammability)

Many petroleum-derived solvents have low flash points and high vapor pressures, making them highly flammable or even explosive under the right conditions. Vapors can travel and ignite from distant ignition sources, creating fire risks in storage areas, spray booths, and cleaning operations. Solvents like acetone, MEK, heptane, and VM&P naphtha are particularly volatile, requiring specialized ventilation and flame-proof equipment. Without proper handling, even routine use can escalate into hazardous situations.

Health Risks

Prolonged or repeated exposure to petroleum-based solvents can lead to a range of health problems. Short-term effects often include headaches, dizziness, and skin or eye irritation. Longer-term exposure (especially in poorly ventilated environments) can impact the central nervous system, liver, kidneys, and lungs. Aromatic solvents such as toluene, xylene, and benzene present some of the most serious risks, including neurological damage and, in the case of benzene, a proven link to cancer. Even solvents perceived as milder, like IPA or butyl acetate, can cause cumulative harm over time without proper protective measures.

Environmental Impact of Petroleum-Based Solvents

Petroleum-based solvents contribute significantly to air, water, and soil pollution. Many contain high levels of volatile organic compounds (VOCs), which evaporate easily and react in the atmosphere to form ground-level ozone and smog. This not only affects air quality but also triggers compliance issues in regions with strict emissions regulations.

Improper disposal or accidental spills can lead to contamination of water sources and soil, harming ecosystems and complicating site remediation efforts. These solvents do not readily break down in the environment, which means their impact can persist for years. Some also contain hazardous air pollutants (HAPs) that pose risks to both environmental and human health.

As sustainability standards tighten and public pressure grows, industries are under increasing scrutiny for how their chemical use affects the surrounding environment. And petroleum solvents are often at the center of that conversation.

Sustainable Alternatives and Renewable Solutions

Transitioning from petroleum-based solvents to bio-based alternatives is a strategic move toward sustainability and safety. Vertec BioSolvents offers products like VertecBio™ ELSOL® and VertecBio™ Ethyl Acetate, designed to seamlessly replace traditional solvents without compromising performance.

VertecBio™ ELSOL® products serve as direct replacements for various petroleum-based solvents, providing comparable solvency and evaporation rates while reducing environmental impact. These bio-based solutions are derived from renewable resources, ensuring a reduced carbon footprint and enhanced safety profiles.

VertecBio™ Ethyl Acetate is a 100% bio-derived solvent that effectively substitutes petroleum-based ethyl acetate in all applications. It offers the same high performance expected from traditional solvents but with the added benefits of sustainability and reduced toxicity.

Both products are biodegradable and contribute to lower volatile organic compound (VOC) emissions, aligning with stringent environmental regulations. By integrating Vertec BioSolvents into your operations, you not only enhance safety and compliance but also demonstrate a commitment to environmental stewardship.

Embracing bio-based solvents is a forward-thinking approach that meets the demands of modern industry standards. Vertec BioSolvents provides the expertise and innovative solutions necessary for a smooth and effective transition.

Ready to explore a safer, high-performance alternative? Contact Vertec BioSolvents to learn more about making the switch.

Understanding the Manufacturing Process of Epoxy Resins

Tue, 22 Apr 2025 10:05:33 GMT

Written by: Vertec BioSolvents

Epoxy resins are used across a wide range of industries for their strength, durability, and resistance to heat and chemicals. Found in everything from industrial coatings and adhesives to electronics and composite materials, these polymers are valued for their high performance in demanding environments.

The production of epoxy resin involves several carefully controlled steps that transform raw materials into a finished product. Understanding what epoxy resins are made of, how they are manufactured, and the environmental impact of that process is key to improving both performance and sustainability.

What Is Epoxy Resin Made Of?

Epoxy resin is primarily made from two key components: epichlorohydrin and bisphenol-A (BPA). These two substances undergo a chemical reaction to form a liquid or solid resin base, depending on the desired end use. Epichlorohydrin is typically derived from petrochemical sources, while BPA is a synthetic compound made from acetone and phenol.

In addition to these base ingredients, epoxy resin formulations may include modifiers, reactive diluents, stabilizers, and other additives to fine-tune performance. These adjustments affect properties such as flexibility, curing speed, viscosity, and resistance to heat or chemicals.

The combination of these components creates a versatile material that can be customized for applications ranging from high-strength adhesives to corrosion-resistant coatings.

Understanding the Epoxy Manufacturing Process

The epoxy manufacturing process involves several tightly controlled steps to ensure product consistency and performance. From raw material preparation to final curing, each phase must meet specific technical and safety standards.

Key stages include the synthesis of the resin, blending with hardeners and additives, controlled curing, and rigorous quality control. Factors such as temperature, mixing ratios, and reaction time directly influence the strength, flexibility, and chemical resistance of the final product.

Understanding each stage is essential for manufacturers looking to optimize epoxy performance across various industrial applications.

Synthesis of Epoxy Resins

Epoxy resin synthesis begins with a chemical reaction between epichlorohydrin and bisphenol-A (BPA) in the presence of a base such as sodium hydroxide. This reaction produces glycidyl ethers, which contain the reactive epoxy groups responsible for the material’s strength and durability.

The resin can be tailored to different viscosities and molecular weights depending on the application. Lower molecular weight resins are commonly used in coatings and adhesives, while higher molecular weight versions are preferred for structural and composite uses.

Blending with Hardener

After synthesis, epoxy resin is combined with a hardener to initiate the curing process. Hardeners, also known as curing agents, are typically amines or anhydrides that react with the epoxy groups to form a solid, cross-linked structure.

The ratio of resin to hardener is carefully calculated to achieve proper curing. An incorrect mix can result in poor mechanical strength, incomplete curing, or surface defects. Additives such as fillers, pigments, or flexibilizers may also be introduced at this stage to modify performance characteristics like color, viscosity, or impact resistance.

Curing and Setting

Curing is the chemical process that transforms liquid epoxy into a solid, cross-linked material. Once the resin and hardener are blended, the mixture begins to react and gradually hardens. This reaction can be accelerated with heat or controlled through ambient curing, depending on the formulation.

The curing phase determines the final mechanical and chemical properties of the epoxy, including hardness, flexibility, and resistance to heat or corrosion. In industrial settings, precise control over time and temperature during this stage is important for achieving consistent results.

Quality Control

Throughout epoxy resin manufacturing, quality control is essential to ensure the final product meets performance and safety standards. Testing begins with raw materials and continues through synthesis, blending, and curing.

Key tests evaluate viscosity, reactivity, hardness, adhesion, and chemical resistance. Other assessments may include thermal stability, pot life, and appearance. These checks help identify inconsistencies, prevent defects, and maintain compliance with industry specifications.

Addressing Environmental Impact of Epoxy Resin Manufacturing

Traditional epoxy resin manufacturing relies heavily on petroleum-based inputs and chemical processes that can release volatile organic compounds (VOCs) and hazardous byproducts. These emissions contribute to air pollution, create health risks in production environments, and increase regulatory pressure on manufacturers.

Waste generated during synthesis, blending, and cleanup is also difficult to manage. Thermoset resins cannot be remelted or easily recycled, leading to long-term disposal challenges.

As sustainability becomes a priority across industries, reducing emissions, improving worker safety, and minimizing waste are key goals for resin producers looking to lower their environmental footprint.

Sustainable Alternatives and Renewable Solutions

Reducing the environmental impact of epoxy resin production starts with using renewable materials and cleaner processing methods. Bio-based resins made from natural sources like plant oils and lignin are gaining traction as alternatives to petroleum-based systems.

Waterborne and low-VOC formulations also help reduce emissions during application and cleanup. These innovations support more sustainable manufacturing without sacrificing essential performance.

Bio-Based Solvents: A Smarter Choice for Epoxy Resin Production

Solvents are often used during epoxy resin formulation, application, and equipment cleanup. Traditional petroleum-based solvents can release high levels of VOCs, contributing to air pollution and creating safety risks in the workplace.

Bio-based solvents offer a cleaner, safer alternative. Derived from renewable sources like corn, soy, or citrus, these solvents reduce harmful emissions while maintaining the performance needed for industrial use. They are compatible with many epoxy systems and can be integrated with minimal changes to process or equipment.

Switching to bio-based solvents is a practical step toward more sustainable epoxy resin manufacturing and improved regulatory compliance.

Choose Vertec BioSolvents for Sustainable Epoxy Resin Formulations

Vertec BioSolvents provides high-performance, renewable solvent solutions that help manufacturers reduce the environmental impact of epoxy resin production. Made from bio-based sources like corn and soy, these solvents offer a safer alternative to traditional petroleum-based chemicals used in formulation, processing, and cleanup.

With low VOC emissions and strong compatibility with epoxy systems, Vertec’s products support cleaner operations, improved worker safety, and compliance with environmental regulations. Manufacturers can integrate these solvents without sacrificing performance or process efficiency.

To learn how Vertec BioSolvents can support your sustainability goals, contact our team for customized recommendations and technical support.

Types of Industrial Resins and How They Are Used

Tue, 15 Apr 2025 15:00:11 GMT

Written by: Vertec BioSolvents

Industrial resins are essential to modern manufacturing, providing strength, flexibility, adhesion, and chemical resistance across a wide range of applications. From protective coatings and automotive parts to electronics and construction materials, these compounds are engineered for high performance in demanding environments.

Many traditional resins are petroleum-based and rely on harsh solvents during processing, raising concerns about safety, emissions, and environmental impact . As industries move toward more sustainable practices, the demand for safer, high-performance alternatives continues to grow.

Vertec BioSolvents supports this transition with bio-based solvent solutions that reduce hazardous emissions and improve the sustainability of resin systems without compromising performance or reliability.

What Are Industrial Resins?

Industrial resins are polymer-based compounds used to bond, coat, or reinforce materials in manufacturing. Designed for strength, durability, and chemical resistance, they play a critical role in industries like construction, automotive, electronics, and aerospace. Most are either thermosetting or thermoplastic and can be engineered to meet specific performance requirements.

Different Types of Industrial Resins and Their Applications

The performance and characteristics of an industrial resin depend largely on its chemical structure and formulation. Some resins offer excellent thermal resistance, while others are valued for flexibility, adhesion, or fast curing times. Choosing the right resin depends on the intended application, environmental exposure, and required mechanical properties.

Epoxy Resin

Epoxy resins are high-performance thermosets known for strong adhesion, chemical resistance, and durability. They’re used in coatings, adhesives, composites, and electronic components.

Common Uses:

Protective coatings for concrete, steel, and marine equipment
Structural adhesives in automotive and aerospace
Electrical insulation and circuit boards

Pros:

Excellent strength and chemical resistance
Strong substrate adhesion
Low shrinkage during cure

Cons:

Can be brittle without proper formulation
Petroleum-based with VOC concerns
Requires precise handling and curing

Polyester Resin

Polyester resins are versatile, cost-effective thermosets commonly used in fiberglass-reinforced plastics, marine components, automotive parts, and construction materials. Known for fast curing and good mechanical properties, they’re widely adopted in high-volume applications.

Common Uses:

Fiberglass moldings and panels
Boat hulls and marine composites
Automotive body parts and structural panels
Concrete repair and construction materials

Pros:

Low cost and easy processing
Fast curing times
Good mechanical strength and dimensional stability

Cons:

Lower chemical and UV resistance compared to epoxies
Strong odor and high VOC emissions
Less durable in highly corrosive environments

Acrylic Resins

Acrylic resins are known for their clarity, UV resistance, and weatherability. Available in both thermoplastic and thermosetting forms, they are widely used in coatings, adhesives, sealants, and plastic parts where color retention and environmental durability are key.

Common Uses:

Architectural and automotive coatings
Sealants and adhesives
Plastics, signage, and display materials
Protective finishes for wood, metal, and concrete

Pros:

Excellent UV and weather resistance
Good color and gloss retention
Fast drying and easy application

Cons:

Lower chemical and heat resistance than epoxy or polyurethane
Can be brittle in high-impact applications
Often requires solvents that emit VOCs

Polyurethane Resin

Polyurethane resins are highly adaptable polymers valued for their toughness, flexibility, and abrasion resistance. They can be formulated as rigid or flexible foams, elastomers, coatings, and adhesives, making them suitable for a wide range of industrial applications.

Common Uses:

Protective coatings and floor finishes
Sealants and adhesives
Foam insulation and cushioning materials
Automotive interior parts and components

Pros:

Excellent flexibility and impact resistance
Strong adhesion to various substrates
Resistant to abrasion, oils, and chemicals

Cons:

Sensitivity to moisture during curing
Can emit hazardous isocyanates during processing
Often relies on petroleum-based inputs and solvents

Isocyanate Resins

Isocyanate resins are reactive components used in the production of polyurethane systems. When combined with polyols, they form rigid or flexible foams, coatings, adhesives, and elastomers. These resins offer high performance but are tightly regulated due to their toxicity and health risks during processing.

Common Uses:

Two-component polyurethane coatings
Rigid and spray foams for insulation
High-performance adhesives and sealants
Industrial elastomers and molded parts

Pros:

High strength and durability
Fast reactivity and curing times
Excellent chemical and abrasion resistance

Cons:

Toxic vapor exposure risk during application
Strict handling and PPE requirements
Environmental and regulatory concerns

Polyamide Polymers

Polyamide polymers , including both thermoplastic nylons and reactive polyamide resins, are valued for their strength, toughness, and resistance to abrasion and chemicals. They’re used in everything from structural components to hot-melt adhesives and high-performance coatings.

Common Uses:

Engineering plastics and molded parts
Hot-melt and pressure-sensitive adhesives
Flexible packaging and films
Industrial coatings and primers

Pros:

Excellent mechanical and thermal properties
Good resistance to oils, fuels, and solvents
Strong adhesion and flexibility in coatings

Cons:

Sensitive to moisture absorption
Higher processing temperatures required
Some types rely on petrochemical feedstocks

Melamine Polymers

Melamine resins are thermosetting polymers formed by reacting melamine with formaldehyde. Known for their hardness, heat resistance, and glossy finish, they are commonly used in laminates, coatings, and molded products.

Common Uses:

Decorative laminates (e.g., countertops, flooring)
Heat-resistant coatings and finishes
Molded kitchenware and electrical components
Paper and textile treatments

Pros:

High hardness and heat resistance
Excellent surface durability and appearance
Cost-effective for large-scale applications

Cons:

Brittle under impact or stress
Contains formaldehyde, raising health and environmental concerns
Limited flexibility in formulation

How Are Industrial Resins Formulated and Manufactured?

Industrial resins are produced by chemically reacting monomers to form polymer chains. These monomers are typically sourced from petroleum, though bio-based alternatives are becoming more common. The resulting polymers are then blended with additives such as catalysts, fillers, plasticizers, and stabilizers to achieve specific properties like flexibility, curing speed, or chemical resistance.

Thermosetting resins cure through chemical reactions or heat, forming a rigid, cross-linked structure that cannot be remelted. Thermoplastics, on the other hand, can be softened and reshaped with heat. Manufacturing processes must be carefully controlled to ensure consistency, safety, and performance.

Industrial Resin Waste and Environmental Concerns

Resin production and use can generate significant environmental impacts. VOCs and hazardous air pollutants are often released during manufacturing and application, especially when solvents are involved. Improper disposal of resin waste also poses risks to soil and water quality.

Thermosetting resins are particularly challenging to recycle due to their permanent chemical structure, which leads to more landfill waste. As regulations tighten around emissions and hazardous materials, manufacturers are under increasing pressure to adopt cleaner, safer alternatives.

Sustainable Industrial Resins and Eco-Friendly Alternatives

Sustainable resins aim to reduce environmental impact by replacing petroleum-based ingredients, lowering emissions, and improving recyclability. Bio-based resins derived from renewable sources like soy, corn, and cellulose are being used in coatings, adhesives, and composites.

Low-VOC technologies such as waterborne and high-solids systems are also helping reduce air emissions. Some manufacturers are moving toward recyclable thermoplastics and biodegradable polymers to cut down on waste.

Advancements in formulation have made many of these alternatives competitive in performance, giving manufacturers a practical path toward meeting sustainability goals without sacrificing quality.

How Vertec BioSolvents Supports Sustainable Resin Formulations

Vertec BioSolvents offers renewable, bio-based solvent alternatives that help reduce VOC emissions and environmental impact in resin systems. Made from corn, soy, and citrus, these solvents are used in formulation, application, and cleanup across a wide range of resins, including epoxy, polyurethane, acrylic, and polyester.

These solutions support cleaner production, safer work environments, and compliance with environmental regulations while maintaining the performance and efficiency that manufacturers require.

To explore how Vertec BioSolvents can help improve the sustainability of your resin systems, contact our team to discuss custom solvent solutions tailored to your needs.

Industrial Resins FAQs

What is the difference between synthetic and natural resins?

Synthetic resins are chemically engineered materials, often made from petrochemical sources, and designed for consistency and high performance in applications like plastics, coatings, and adhesives. Natural resins, by contrast, are derived from plant sources and have traditionally been used in products like varnishes and sealants. While synthetic resins offer uniform strength and durability, natural resins are valued for being renewable and more environmentally friendly, making them increasingly relevant in sustainable manufacturing. Vertec BioSolvents supports both types with bio-based solvent solutions that are compatible across a wide range of resin systems, helping formulators meet sustainability goals without altering performance standards.

Are bio-based resins as durable as traditional ones?

Many modern bio-based resins are designed to match the performance of traditional petroleum-based resins. With improvements in formulation, these resins now offer comparable mechanical strength, chemical resistance, and thermal stability. As a result, they’re widely used in industries like automotive, construction, and industrial coatings, delivering both durability and sustainability. At Vertec, our bio-based solvents are specifically formulated to work with these next-generation resins, ensuring compatibility, stability, and efficiency in demanding CASE (coatings, adhesives, sealants, and elastomers) applications.

Can resins be recycled?

Recycling resins depends on the type. Thermoplastics can often be remelted and reformed, making them relatively easy to recycle. Thermosets, however, undergo a curing process that makes them hard to break down and reuse. Despite these challenges, newer technologies, such as chemical recycling and bio-based alternatives designed for end-of-life recovery, are helping improve the recyclability of resin-based materials.

Toluene Solvent: Uses, Effects, & Substitutions

Tue, 17 Dec 2024 17:19:15 GMT

Written by: Vertec BioSolvents

Scrubbing away inks, producing paints, and enhancing gasoline often involve a common ingredient—toluene. As a powerful and relatively inexpensive solvent, this chemical plays a significant role in industrial processes, construction, and other applications.

Unfortunately, it's also toxic and hazardous to the environment. In this article, you'll get answers to these essential questions: what is toluene used for, what effects does it have, and what options are available if you want a safer solution for your needs?

What Is Toluene?

Toluene is a clear, colorless liquid with a strong smell. It's a natural substance present in crude oil and the tolu tree, but humans also create it when making substances like gasoline. Toluene is part of a specific type of solvent degreaser known as aromatic solvent degreaser, which can help dissolve oils and contaminants.

Previously known as toluol, toluene is one of the most widely used replacements for a solvent called benzene. The shift away from benzene occurred in part because it's a known carcinogen, whereas researchers have not yet determined whether toluene causes cancer.

What Is Toluene Used For?

Toluene is present in many of the products and materials that people use every day. It's a popular solvent because it can mix with and dissolve a wide range of substances.

Paints & Coatings

One of the most common uses for toluene is producing paint and related products. Many paints and lacquers contain toluene because its fast evaporation rate helps them dry more quickly. It's also an ingredient in a variety of paint thinners.

Toluene is present in other types of coatings, including fingernail polish, because it allows for a smooth finish. People use it when creating fingernail polish remover because it quickly dissolves the applied polish.

Adhesives & Sealants

While paint production is among the most common applications for toluene, you'll find it in many other products, as well. Glues, adhesives, and sealants often contain this chemical because it helps prevent them from becoming too thick. This makes it possible to apply a thin layer of adhesive on a surface or product.

Gasoline

In the past, the gasoline industry often used benzene and xylene to improve octane ratings for gasoline, particularly gas for Formula One racing cars. In more recent years, they've begun using toluene instead or in addition to these substances. A high octane rating helps prevent knocking or pinging during combustion, and toluene raises the rating because of its high density and significant energy.

Other Uses

Manufacturers and labs also rely on toluene for several other purposes. For example, it's often present in rubber and is useful for producing nylon, plastics, and other chemicals. Toluene is also common in leather tanning and printing, particularly in inks and dyes.

Effects of Toluene Exposure

Toluene is a strong solvent, but it also comes with several drawbacks. Before using toluene, it's important to understand its potential for causing harm.

Health Effects

Unlike safe solvent products , toluene presents a variety of health concerns, ranging from minor discomfort to severe illness. Toluene exposure occurs when someone breathes in air or touches surfaces treated with it. That makes it especially risky for people who work with gasoline, paint, or dyes.

However, even people outside of these work environments can suffer because of toluene exposure. For instance, if you spend a lot of time in traffic or work in highway maintenance, you might inhale significant amounts of toluene from car exhaust. People who intentionally or unintentionally inhale glue or paint thinner can also experience damaging effects.

According to the Centers for Disease Control, toluene affects the nervous system, with short-term exposure causing these health effects:

Headaches
Dizziness
Tiredness
Confusion
Weakness
Memory loss
Nausea
Loss of appetite

These symptoms usually disappear when exposure stops. However, long-term, repeated exposure, such as in the workplace, can cause more serious damage, including hearing and color vision loss and brain damage.

Along with these concerns, toluene is highly flammable. If workers handle it improperly, it can cause dangerous and potentially life-threatening fires.

Environmental Effects

Toluene not only puts people at risk but also poses a threat to the environment. It regularly enters the air through industrial processes and from car exhaust, releasing volatile organic compounds (VOCs) that worsen air pollution.

The most concerning scenario, however, is if toluene leaks or spills into the soil or a source of water. Studies have found that it can be harmful to animals, causing neurological issues similar to those of humans and potentially suppressing the immune system. Long-term exposure can have more serious impacts, including liver damage. When it enters lakes, streams, rivers, or groundwater, toluene is also moderately toxic to aquatic life and causes damage to plants.

Bio-Based Substitutes for Toluene Solvents

Although toluene has many advantages, the damage it can do to people and the planet is problematic, to say the least. Despite those negative aspects of its use, it remains widespread because of its low cost and strength.

Fortunately, viable alternatives to toluene have emerged in recent years. These products have fewer side effects but the same or greater effectiveness, helping to keep workers, consumers, wildlife, and plant life safe.

For example, VertecBio ELSOL TR is a bio-based option that has better power yet lower VOCs than toluene. It's an ideal solution for paints, coatings, and inks and is made entirely from renewable resources.

If you need a product to clean adhesives, resins, paints, coatings, inks, and other substances, VertecBio Citrus products are an excellent option. In addition to having a more pleasant scent than toluene, these products are also biodegradable, non-toxic, and more cost-effective.

Request a Sample of Vertec's Toluene Solvent Substitute

Chemicals like toluene have long served an important purpose in an array of industries. Over time, however, people have become more aware of their significant downsides. Vertec BioSolvents is proud to offer a line of bio-based solvents that can safely replace toluene without sacrificing quality. Reach out to learn more about toluene substitutes and request a sample so you can see them in action.

Resin Environmental Impact and Sustainable Alternatives

Tue, 29 Oct 2024 17:05:06 GMT

Written by: Vertec BioSolvents

Artists, builders, and industrial workers have long used resin as a production and building material because of its versatility and strength. As concerns about climate change and environmental protection have grown, people have reevaluated the use, formulation, and production of resin, specifically the synthetic variety. In this article, you'll learn how different types of resin affect the environment and the advantages of using eco-friendly resins, including those made with green solvents rather than petroleum.

What Is Resin?

Resin is a thick substance that can be natural or synthetic. Natural resins develop in plants and animals, while synthetic resin is human-made. Synthetic resin is popular for use in a variety of industries and applications, including:

Automotive
Construction
Electronics
Crafts
Jewelry

One reason resin is common for these purposes is that it begins as a liquid but cures and solidifies into a plastic-like material. This transformation from a liquid to a solid structure makes resin an easy-to-use option when creating artwork, furniture, flooring, countertops, and other objects.

The Environmental Impact of Resin

Natural resins are biodegradable and eco-friendly, but the same can't be said for their synthetic counterparts. They're typically made from petroleum-based materials and can harm the environment in multiple ways.

First, because these resins come from fossil fuels, they can release polluting toxins and chemicals during production. Resin production releases volatile organic compounds (VOCs) and greenhouse gasses into the environment, resulting in increased air pollution and contributing to climate change. According to a recent study, resin production creates a significant amount of greenhouse gas emissions , hastening the climate crisis and underscoring the need for a more sustainable supply chain.

Traditional synthetic resins also aren't biodegradable, which makes disposal a challenge. Incinerating them creates toxic chemicals while placing them in landfills can affect the water and air over time.

Environmentally Friendly Resins

The environmental effects of synthetic resins haven't gone unnoticed. In response, labs and manufacturing companies have sought greener options.

Bio-Based Epoxy Resin

Epoxy resins have to be especially strong and durable because they're often used as adhesives. While synthetic resins can achieve this goal, they aren't the cleanest or most sustainable solution.

Bio-based epoxy resins contain plant-based rather than petroleum-based solvents. They're usually made from agricultural byproducts, such as plant oils and starches. Because they come from renewable resources, they're a much more sustainable alternative to synthetic resins, while still offering the necessary strength to create durable products. Many of Vertec's bio-based solvents are compatible with resin formulations.

Water-Based Resin

Water-based resins also contain fewer toxic chemicals and solvents than typical synthetic resins. As the name suggests, they have water rather than petroleum-based solvents as their carrying medium. The use of water means that these resins are much less toxic and flammable, with fewer VOC emissions.

The most common uses for water-based resins are coatings and adhesives. However, they often can't match the level of durability that standard solvent-based resins offer. As a result, it's important to carefully consider your specific needs and expectations before using them.

Plant-Based Resin

Sometimes called bio-resins, plant-based resins include materials such as soybeans, castor bean oil, sugarcane, and corn. They're a renewable, sustainable, and cleaner choice compared to petroleum-based resins. They also have a less noticeable smell and lower toxicity levels, making them more pleasant to use.

UV-Curable Resin

If you're looking for a resin that will cure quickly without releasing a lot of VOCs, UV-curable resins may be a good fit. After applying these resins, you cure them using UV light. They're common in industrial settings and are useful for sealing, bonding, and coating. Some UV-curable resins are more eco-friendly than others, so look carefully at the product details if you're concerned about environmental impacts.

Benefits of Using Environmentally Friendly Resin

The most obvious advantage of using an eco-friendly resin is that it has a smaller carbon footprint and is less likely to harm the environment. Using renewable resources to produce resins lessens the demand for fossil fuels, which play a major part in worsening climate change.

Using an environmentally friendly resin also creates a safer work environment. Due to their lower VOC content, eco-friendly resins cause fewer breathing and health problems for workers, particularly those in enclosed spaces.

Considerations for Using Sustainable Resin Alternatives

While resin alternatives have significant benefits, selecting and using them requires careful planning. They often have different curing times compared to traditional resins, which could cause delays in your application. Additionally, some eco-friendly resins are better suited to certain applications, so it's important to carefully review the product information before committing to them.

When to Use a Resin Alternative

You can use eco-friendly resins for many of the same applications as synthetic resins. They're especially beneficial if you're working in a small space or an area with limited ventilation. In these cases, a resin with a lower VOC count is usually safer than a petroleum-based option.

Your decision to use an environmentally friendly resin may also come from a desire to achieve greater sustainability, minimize pollution, and support the fight against climate change. Artists, manufacturers, builders, and other professionals can take a more responsible approach to the environment by using resin alternatives.

Does Sustainable Resin Work Like Traditional Resin?

Eco-friendly resins can work in essentially the same way as traditional, petroleum-based resins. However, the effectiveness depends on the application and whether it aligns with the intended use.

Sustainable resins become increasingly effective with ongoing research and development, but it's still crucial to evaluate whether it's an appropriate choice for your needs. Before you select your resin, think carefully about key aspects of your application, including the curing time, strength and durability, clarity, and color that you need to achieve.

Find Bio-Based Solvents Today!

Replacing typical resins and industrial solvents with bio-based alternatives is an important step in the path toward a more sustainable future. Our BioSolvent products are safe and derived from renewable resources. They're also appropriate for a wide variety of industries and applications, including resin formulations. Contact Vertec to learn more or request a free sample.

VertecBio™ ELSOL® KTR1

VertecBio™ ELSOL® KTR1 is a sustainable, bio-based solvent ideal for acrylic, polyester, epoxy, and isocyanate resins. It delivers excellent solvency for high-performance formulations while minimizing environmental impact.

VertecBio™ ELSOL® TR

VertecBio™ ELSOL® TR is a sustainable, bio-based solvent for acrylic, polyester, epoxy, and isocyanate resins. It ensures excellent solvency and efficient formulations with minimal environmental impact.

VertecBio™ ELSOL® LQ

VertecBio™ ELSOL® LQ is a sustainable, bio-based solvent designed for acrylic polymers. It offers excellent solvency, improving formulation efficiency while reducing environmental impact for more eco-conscious acrylic applications.

VertecBio™ ELSOL® XR

VertecBio™ ELSOL® XR is a bio-based, eco-friendly solvent ideal for polyester polymers and epoxy resins. It offers excellent solvency, enhancing formulation efficiency while supporting sustainable, high-performance applications.

VertecBio™ Clean ECO-Solv

VertecBio™ Clean ECO-Solv is a sustainable, bio-based solvent designed for polyamide polymers. It offers excellent solvency, enhancing processing efficiency while reducing environmental impact for polyamide-based applications.

VertecBio™ ELSOL® BCR

VertecBio™ ELSOL® BCR is a bio-based, eco-friendly solvent designed for polyamide polymers. It provides excellent solvency and improves formulation efficiency while supporting sustainable, high-performance polyamide applications.

Melamine Polymers - CASE Study

Thu, 24 Oct 2024 12:00:06 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Melamine Polymers

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Melamine Polymers

Melamine resins are used in industrial baking enamel paint formulations and can also be found within industrial adhesive products. Petroleum-based solvents have traditionally been used to dissolve / solvate melamine resins. The use of bio-based solvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with melamine resins.

As illustrated above the proper selection of a bio-based solvent to dissolve / solvate the specific melamine resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / melamine resin solution.

Contact us today to purchase or find out more about VertecBio™ ELSOL® KTR1 and VertecBio™ ELSOL® XR !

How to Remove Polyurethane with Acetone & Other Solutions

Tue, 22 Oct 2024 16:44:37 GMT

Written by: Vertec BioSolvents

Polyurethane is a strong and durable sealant that can last for decades. That's great news if you want to protect or preserve a surface, but it becomes a problem if you need to remove it. Polyurethane removal can be frustrating and tedious, particularly if you're using inefficient or unsafe solutions. Learn about how to remove polyurethane using a variety of methods, including acetone and bio-based solvents.

What You Need to Know Before Removing Polyurethane

Taking cured polyurethane off a surface is a common practice for painters, construction teams, and home improvement aficionados. If you've never tried to remove this notoriously difficult substance, you may be surprised by some of the obstacles you encounter.

Why You May Need to Remove Polyurethane

Polyurethane removal often occurs when someone wants to clean, refinish, or improve the appearance of an item. Over time, polyurethane on furniture and other surfaces, such as hardwood floors and decks, becomes damaged. You might need to remove it to eliminate visible scratches, dings, and gouges and apply a fresh coat.

Wood treated with polyurethane also doesn't absorb paint or stain as effectively as untreated wood. As a result, people often remove polyurethane when they want to change the color of a wooden surface.

What Can Remove Polyurethane Effectively?

There are a handful of chemicals that can remove polyurethane. They include:

Isopropyl alcohol
Acetone
Xylene
Paint strippers
Bio-based solvents

However, these chemicals have significant differences in terms of strength and toxicity.

Why Removing Polyurethane Can Be Challenging

Polyurethane is difficult to remove by design. It protects wood, plastic, and other materials from damage and slows natural deterioration. When you attempt to take polyurethane off a surface, you'll likely discover that it creates a sticky residue. Depending on the size of the area and the amount of buildup, that could mean hours or days of hard work.

Certain polyurethane removal methods can also be problematic. For example, scraping, sanding, and applying chemicals can damage the surface underneath the polyurethane. In addition, the substances used to remove polyurethane—and the polyurethane itself—are often toxic. This makes the process potentially dangerous for people and animals.

Can Acetone Effectively Remove Polyurethane?

Acetone is a strong solvent, so it can remove some polyurethane if you use it correctly. Before you use it, it's important to understand the process and its potential downsides.

How It Works

Acetone is a solvent that can turn dried polyurethane into a liquid. These are the typical steps when using acetone for polyurethane removal:

If working indoors, prepare the space by opening windows to allow for ventilation, protecting your health and reducing the risk of fires.
Put on safety gear, including gloves.
Pour the acetone onto the surface or apply it with a brush.
Wait 10 to 15 minutes for the acetone to soften the polyurethane.
If necessary, scrape the polyurethane away with a putty knife or scraper.
Wipe the surface clean with a dry cloth.

Some polyurethane is resistant to acetone. If you follow these steps and are unable to remove it, you may need to try a different approach.

Is Acetone the Best Solution?

While acetone can generally remove polyurethane, it comes with several disadvantages. It's highly flammable, so even a small flame or spark can set off a fire or explosion when enough vapors are present. It also has a strong odor that makes it unpleasant to use.

Acetone exposure can negatively impact human health , with symptoms such as:

Headaches
Confusion
Nausea
Racing pulse
Unconsciousness
Nose, throat, lung, or eye irritation
Dry, cracked skin

It can also have negative effects on the environment, harming aquatic life if it spills or seeps into water sources or groundwater.

Other Common Methods for Removing Polyurethane

Acetone is far from the only option available if you want to remove polyurethane . Many people use sanding strips, sanders, or metal scrapers to gradually remove the substance. You might also opt to use a planer, which trims the surface to expose the bare wood underneath.

Chemical strippers are another popular option. However, many of the paint strippers that are on the market are extremely harsh and often hazardous.

Exploring Eco-Friendly Solutions to Remove Polyurethane

Many people who want to reduce their environmental impact are looking for alternatives to solvents like acetone . Biosolvents are equally effective but safer than other polyurethane removal methods.

The Advantages of Biosolvents

High-quality biosolvents have the same strength as acetone and other solutions—without the health and environmental issues. Made from renewable resources and with no environmentally hazardous ingredients, these solvents are more eco-friendly in every way. They're also non-toxic and have a much more subtle and appealing smell than acetone.

How Biosolvents Work

The process of using biosolvents is very similar to acetone and other traditional solvents. You simply apply it to the surface, wait as it softens the polyurethane, and wipe it away with a cloth. Good biosolvents leave very little or no residue.

Choosing the Right Removal Method for Your Needs

When deciding how to remove polyurethane, look for a solution that balances safety, power, and speed. Health and environmental concerns, such as toxicity levels, are key for many people. Bio-based solvents and physical processes like sanding are environmentally friendly and non-toxic. Acetone and chemical strippers, on the other hand, can hurt people and the planet.

The method you choose also depends on the type and condition of the item. Think about how old it is, whether it's fragile, and if you want to protect any details of the underlying surface.

Another point to consider is how much work you'll have to do. Some methods of polyurethane removal, such as sanding and scraping, are more labor-intensive, whereas solvents are generally easier and less time-consuming.

Why Choose Vertec's Eco-Friendly Solvents for Your Polyurethane Removal?

Vertec offers a line of bio-based solvents that are ideal for polyurethane removal. VertecBio 5516 is an environmentally friendly solvent that's non-hazardous and effective at cleaning polyurethanes and epoxies. VertecBio Citrus also works well on polyurethane, epoxy, resins, paints, coatings, and inks.

Reach out to the Vertec team to learn more about our bio-based solutions for polyurethane removal or request a quote.

Environmentally friendly solvent ideal for cleaning polyurethanes and epoxies. Includes no environmentally hazardous ingredients, with a moderate drying time that leaves behind no residue.

An excellent cleaner for epoxy, polyurethane, and other resins, this bio-based alternative is the perfect replacement for Xylene and Toluene cleaning solvents.

Polyamide Polymers - CASE Study

Thu, 17 Oct 2024 12:00:09 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Polyamide Polymers

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Polyamide Polymers

Polyamide resins are used in many printing ink formulations for their high gloss and excellent adhesion to plastic films. Petroleum-based solvents have traditionally been used to dissolve / solvate polyamide resins. The use of bio-based solvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with polyamide resins.

As illustrated above the proper selection of a bio-based solvent to dissolve / solvate the specific polyamide resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / polyamide resin solution.

Contact us today to purchase or find out more about VertecBio™ Clean ECO-Solv , and VertecBio™ ELSOL® BCR !

Isocyanate Resins - CASE Study

Thu, 10 Oct 2024 12:00:03 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Isocyanate Resins

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Isocyanate Resins

Isocyanate resins are used in two-component and one-component urethane coatings and adhesive formulations. Aliphatic urethane coatings offer excellent weather resistance and are the coating type most used for aircraft and automotive finishes. Petroleum-based solvents have traditionally been used to dissolve / solvate isocyanate resins. The use of biosolvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with a popular aliphatic isocyanate resin.

As illustrated above the proper selection of a bio-based solvent to dissolve / solvate the specific isocyanate resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / isocyanate resin solution.

Contact us today to purchase or find out more about VertecBio™ ELSOL® KTR1 , VertecBio™ PolySolv TR , and VertecBio™ ELSOL® TR !

Epoxy Resins - CASE Study

Thu, 03 Oct 2024 12:00:07 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Epoxy Resins

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Epoxy Resins

Epoxy resins are used in coatings that demand exceptional chemical resistance in their applications. Epoxy resins are also used in adhesive and sealant formulations (generally a 2-part system), sometimes referred to as the hardener part of the system. Petroleum-based solvents have traditionally been used to dissolve / solvate epoxy resins. The use of bio-based solvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with a typical epoxy resin.

As illustrated above the proper selection of a bio-based solvent to dissolve / solvate the specific epoxy resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / epoxy resin solution.

Contact us today to purchase or find out more about VertecBio™ ELSOL® KTR1 , VertecBio™ PolySolv TR , and VertecBio™ ELSOL® XR !

Polyester Polymers - CASE Study

Thu, 26 Sep 2024 05:02:33 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Polyester Polymers

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Polyester Polymers

Polyester resins are used in industrial and maintenance paint formulations. They can also be found in adhesive, sealant and elastomer products. Petroleum-based solvents have traditionally been used to dissolve / solvate polyester resins. The use of bio-based solvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with several polyester resins.

As illustrated above the proper selection of a bio-based solvent to dissolve / solvate the specific polyester resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / polyester resin solution.

Contact us today to purchase or find out more about VertecBio™ ELSOL® KTR1 , VertecBio™ PolySolv TR , and VertecBio™ ELSOL® XR !

Acrylic Polymers - CASE Study

Thu, 19 Sep 2024 04:50:40 GMT

Written by: Vertec BioSolvents

Bio-based Solvents for CASE Applications – Acrylic Polymers

The CASE (Coating, Adhesives, Sealants, and Elastomers) industries are experiencing an evolution in new product formulations. The need for environmentally friendly products has never been higher. Consumers and businesses are demanding sustainable products and a reduction of environmental impact from the CASE industries.

CASE product formulators are challenged today to transition products from fossil fuel-based raw materials to renewable alternatives. Bio-based solvents can play a crucial role in making this shift possible. Many solvent-based traditional formulations cannot be replaced with alternative technologies due to poor product performance or application constraints. Bio-based solvents can aid the product formulator achieve the goal of providing a sustainable formulation with minimum impact on performance.

Key criteria for replacing petroleum-based solvents are compatibility with commonly used resins in current formulations. The selection of the proper bio-based solvent (or blend) can offer a sustainable solution and potentially offer a VOC reduction in specific formulations. An additional benefit of a bio-based solvent formulation can be a reduction in the overall carbon footprint for CASE companies.

Vertec BioSolvents , Inc. is an innovative manufacturer of sustainable, safe, bio-based green solvents and solvent blends derived from corn, soybeans, citrus and other renewable feedstocks. Our latest R&D efforts have demonstrated many commonly used solvent-based resins formulations can benefit from inclusion of bio-based green solvents.

Acrylic Polymers

Acrylic resins are a popular choice in paint, ink and other coating formulations. In the past many solid thermoplastic resins were dissolved in petroleum-based solvents within coating formulas. The use of bio-based solvents to replace them can lead to a greater sustainable formula and potentially lower the VOC of the product.

Below are examples of Vertec BioSolvents products compatibility and viscosity behavior with several popular acrylic resins.

As illustrated above the proper selection of a bio-based solvent to dissolve the specific acrylic resin and produce a suitable viscosity is critical to a successful formulation. Once the bio-based solvent has been identified, it may be possible to increase the coating solids due to the lower viscosity bio-based solvent / acrylic resin solution.

Contact us today to purchase or find out more about VertecBio™ ELSOL® KTR1 , VertecBio™ PolySolv TR , and VertecBio™ ELSOL® LQ !

What Is Isobutyl Acetate?

Fri, 06 Sep 2024 15:00:01 GMT

Written by: Vertec BioSolvents

From paint to pharmaceuticals, isobutyl acetate has many practical uses. Unfortunately, it can also cause serious damage to a person's health, create dangerous fires, and harm the environment. Organizations across multiple industries have long accepted those risks because there were no viable or safer alternatives, but that's no longer the case.

For manufacturers and other businesses that rely on isobutyl acetate, understanding its applications and risks is crucial. However, it's equally important to know what other options are available and how they compare in terms of safety and effectiveness.

What Is Iso Butyl Acetate?

Iso butyl acetate, or isobutyl acetate, is a colorless liquid with a fruity odor. It's used as a solvent in many industries , particularly in those involving polymers, resins, oils, and cellulose. Iso butyl acetate is slightly water-soluble and extremely flammable with high electrical resistance.

What Can Isobutyl Acetate Be Used For?

Iso butyl acetate has many of the same properties as methyl ethyl ketone (MEK), a similar chemical compound. Like MEK, it also has a variety of uses across multiple industries.

Industrial Applications

Because it's such a powerful solvent, isobutyl acetate is found in many industrial environments. It's especially popular in the paint and coatings industry, where it's central to the production of a range of substances, including:

Wood varnishes
Architectural coatings
Printing inks
Adhesives
Thinners
Sealants

In addition, isobutyl acetate is a common solvent in the leather, paper, and chemical processing industries. In pharmaceuticals, it's sometimes used as an extraction solvent when manufacturing antibiotics. Finally, it's included in some industrial cleaning solutions.

Consumer Products

Iso butyl acetate is also used outside of the industrial and manufacturing world. It's present in aerosol sprays, adhesives, and cleaning products that are widely available to the public. More specifically, it's useful for cleaning residues from paint, varnish, and other coatings.

Due to its pleasant aroma, isobutyl acetate is also a popular choice for fragrances, cosmetics, and personal care products. For example, it's an ingredient in some brands of nail polish and face cream.

How Should Iso Butyl Acetate Be Stored?

Because it's a flammable and toxic substance, safely storing iso butyl acetate is vital. As a general rule, it should be kept in tightly sealed containers placed in a cool, dry, well-ventilated area.

To reduce the risk of fire, it should be stored away from any heat sources, as well as products containing these substances:

Nitrates
Strong oxidizers
Alkalis
Acids

Employees who handle iso butyl acetate should always use personal protective equipment (PPE), including goggles and gloves. This helps to prevent potentially harmful contact with the skin and eyes.

Key Benefits of Using Isobutyl Acetate

The primary advantage of isobutyl acetate is its strong solvent activity because it's powerful enough to dissolve many different coatings. Another important characteristic is its evaporation rate, which makes it an appealing solution for the paint industry. In addition, iso butyl acetate's pleasant odor makes it beneficial when producing perfumes, fragrances, and other scented items.

Drawbacks of Iso Butyl Acetate

Although iso butyl acetate has some positive traits, it also has many downsides. According to the National Oceanic and Atmospheric Administration's hazard profile , it can pose a risk to people, physical property, and the environment.

Dangerous Health Effects

Exposure to iso butyl acetate is harmful to human health. It presents some of the same dangers caused by Butyl Cellosolve , such as nose irritation. It can also create other health issues, such as:

Breathing difficulties, nausea, and vomiting if someone inhales the vapors
Discomfort in the eyes and throat
Drying and cracking skin
Severe burns to the skin if there's direct contact

In cases of high or prolonged exposure, people may experience more concerning symptoms. These include dizziness, weakness, headaches, drowsiness, and loss of consciousness.

Damage to Property and the Environment

Along with having adverse effects on the human body, isobutyl acetate introduces a significant fire hazard, particularly in industrial sites. Even small amounts of heat, sparks, or flames can ignite the liquid and start fires. If the vapors ignite, they can also cause explosions, which are especially hazardous in enclosed spaces.

If iso butyl acetate leaks or is spilled, it can have a detrimental impact on the environment. It doesn't generally bind the soil. However, unlike bio-based products , it can add toxicity to the water or air.

What Are Some Substitutes for Iso Butyl Acetate

Some companies have begun looking for alternatives to iso butyl acetate because of its health effects and flammability. Vertec BioSolvents offers several substitutes, including:

VertecBio ELSOL KTR1 , a bio-based solvent that can replace iso butyl acetate in multiple formulations, including paint, coatings, and ink
VertecBio ELSOL KTR2 , another effective solvent for paint, coatings, and ink formulations
VertecBio Ethyl Acetate , a bio-based replacement for iso butyl acetate as a cleaning solvent that leaves no residue

Whereas iso butyl acetate can cause injuries or illnesses, these products are non-toxic and non-carcinogenic. In addition, they offer extensive environmental benefits that aren't present when using isobutyl acetate. They don't contain any hazardous air pollutants and are made entirely from renewable resources. This makes them a safer option for both people and the planet.

See What Vertec BioSolvents Has to Offer

Iso butyl acetate is a practical choice for some products and applications, but it's not always an ideal solution. Concerns about fires, contamination, and human health are all good reasons to consider different solvents with the same power but fewer risks.

Vertech BioSolvents offers a variety of environmentally friendly bio-based solvents that can take the place of isobutyl acetate. We aim to promote sustainability and safety without sacrificing solvent quality or effectiveness. Our iso butyl acetate, petrochemical, and acetone alternatives contain no toxic ingredients, hazardous air pollutants, or ozone-depleting chemicals. We're also proud to manufacture all of our products exclusively in the United States.

Reach out to the team at Vertech BioSolvents to learn more about our eco-friendly substitutes for isobutyl acetate and find the best solvent for your needs.

Denatured Alcohol vs. Acetone: What Are the Differences?

Thu, 05 Sep 2024 14:16:43 GMT

Written by: Vertec BioSolvents

Removing stains or paint is often an exhausting job, particularly if you're not using the right type of solvent. While you want a solution that makes the job easy, you also need something that won't damage surfaces or make people sick. Denatured alcohol and acetone are go-to solvents for these types of applications, but they also have significant drawbacks.

When deciding between denatured alcohol and acetone, it's important to understand how they're similar and what sets them apart. In this article, you'll learn everything you need to know about both substances—and why bio-based alternatives are often a better option.

What Is Denatured Alcohol?

Denatured alcohol is a combination of alcohol and additives that make it unsafe for consumption. It is commonly combined with water or other liquids to form a chemical solvent.

Common Uses & Applications

In most cases, denatured alcohol is used as a fuel source, cleaning agent, or solvent. It can thin paints, varnishes, and other coatings, making it useful when manufacturing:

Polishes
Lacquers
Surface coatings
Dyes
Inks
Rubber
Plastics

Denatured alcohol is also effective at removing stains, dirt, grease, and adhesives from metal, plastic, and wood.

Properties

Also referred to as methylated spirits, denatured alcohol is a clear liquid with a pleasant smell. It's created by mixing ethanol with additives, such as:

Methanol
Benzene
Pyridine
Isopropyl alcohol

These additives make the alcohol toxic, so it sometimes contains dye indicating that it's unsafe to ingest. Like most substances containing alcohol, it's highly flammable and can easily ignite when exposed to sparks.

What Is Acetone?

Acetone is composed of carbon, hydrogen, and oxygen atoms. It's found in many places in nature, including volcanic gases and plants, but it's also a popular solvent for manufacturing and cleaning.

Common Uses & Applications

Because of its high solvency power, acetone is often used to remove paints, adhesives, and resins. It has applications in multiple industries , including:

Paper preparation
Pharmaceuticals
Plastic production
Automotive part degreasing
Lacquer thinning and production

Because of its wide-ranging use, acetone is present in many places, from household products to vehicle exhaust to landfill sites.

Properties

Acetone is a colorless, organic solvent with a subtle but distinct smell. Although it's less toxic than denatured alcohol, it's still unsafe for consumption, and its vapors can cause nose, throat, and skin irritation.

Using acetone is convenient because it evaporates quickly when exposed to air. However, it's also highly combustible, making it hazardous when it comes into contact with sparks, flames, or excessive heat.

Similarities Between Denatured Alcohol & Acetone

The most important link between acetone and denatured alcohol is the fact that both of them can break down a variety of oily substances. As a result, businesses can use them for the same purposes, including degreasing, cleaning, and paint thinning. As clear, colorless liquids, they're also similar in appearance.

Differences Between Denatured Alcohol & Acetone

Despite their shared purposes, acetone and denatured alcohol are very different chemicals. First and foremost, acetone is a naturally occurring chemical compound, whereas denatured alcohol contains additives that make it poisonous to humans. For that reason, pharmaceutical companies can use acetone to make some medications, whereas denatured alcohol is not an option.

These solvents also differ in their effectiveness for certain applications. For example, using acetone to clean plastic items like PVC can cause damage. Denatured alcohol, on the other hand, is generally less harsh on plastic surfaces.

On the other hand, acetone is more effective at removing some coatings. While denatured alcohol can dissolve paint, it may not remove it completely like acetone.

Environmental Impacts

Unlike eco-friendly organic solvents , denatured alcohol and acetone can damage the environment. In addition to affecting human health, they threaten animal and plant life.

Denatured Alcohol

One of the primary benefits of replacing isopropyl alcohol and denatured alcohol is preventing chemical spills that can harm aquatic life. Large leaks of denatured alcohol can have effects that last for several days , continuing to kill fish and other wildlife until the solvent is fully diluted or evaporated.

Denatured alcohol also often contains petroleum byproducts. Petroleum-based substances increase carbon emissions and drain nonrenewable resources.

Acetone

Acetone's rapid evaporation rate means that it generally doesn't make its way into the water and instead is present as vapor in the air. However, it can seep into groundwater from landfills and leak into surface water during manufacturing waste disposal.

When it enters the water, acetone can affect aquatic life , as well as agricultural and ornamental plants. Some regulators thus require facilities to develop a strict hazardous waste treatment plan for acetone to ensure that they minimize environmental harm.

Another advantage of replacing acetone is reducing fire hazards. Fumes and vapors from acetone can easily ignite in drains or other enclosed spaces, potentially leading to dangerous explosions that put human lives and nearby wildlife at risk.

Common Substitutes for These Solvents

In the modern era, using solvents doesn't have to mean hurting employees and the environment. Instead, you can opt for organic, non-hazardous alternatives.

If your business relies on acetone, choosing to substitute with Vertec products allows you to achieve the same outcomes without concerns about environmental damage or harmful health effects. Because it's non-toxic and more efficient in viscosity reduction than acetone, ELSOL AR is an excellent option for pharmaceuticals, manufacturing, and cleaning.

Similarly, VertecBio Clean ECO-Solv is a substitute for isopropyl alcohol and denatured alcohol. This safe, high-power solvent leaves no residue and contains no hazardous air pollutants.

VertecBio™ Clean ECO-Solv

VertecBio™ Clean ECO-Solv is a bio-based isopropyl alcohol alternative, and is excellent for lacquer formulating and cleaning. This solvent has unique bio-static properties to provide an ideal wipe solvent for food and agricultural seed contact surfaces.

VertecBio™ ELSOL® AR

VertecBio™ ELSOL® AR is a powerful, bio-based replacement for harmful industrial acetone products. It has exceptional performance as a solvent blend for paint, coating, and ink formulations.

VertecBio™ ELSOL®

VertecBio™ ELSOL® products are a full line of bio-based, safe solvents derived from renewable resources. These high-performing solvents and solvent blends are designed for use as formulating ingredients, carrier solvents, and cleaning solvents.

Get in Touch With Vertec BioSolvents for a Quote

Solvents play a critical role in many industries, but their benefits often come at a high environmental cost. Although acetone and denatured alcohol are useful for cleaning, degreasing, and thinning surface coatings, they're also highly flammable and potentially harmful.

Vertec BioSolvents offers bio-based substitutes for these and other solvents. Derived from renewable sources, our products help businesses reach their sustainability goals and keep employees safe and healthy while also meeting their solvent needs. Contact Vertec to receive a free quote and learn more about denatured alcohol and acetone alternatives.

Xylene Solvent: Uses, Effects, & Substitutions

Wed, 17 Jul 2024 20:29:14 GMT

Written by: Vertec BioSolvents

Whether they're painting, cleaning machinery on the factory floor, or spraying crops to keep pests away, people use xylene solvent every day without even realizing it. Xylene is one of the most commonly used chemicals across multiple industries , from medical labs to paint manufacturers. Unfortunately, it's also toxic and harmful to the environment.

In this post, you'll learn more about xylene and its applications. More importantly, you'll discover alternative solutions that can produce the same results while also safeguarding people's health and protecting the planet as a whole.

What Is Xylene?

Xylene is a colorless, sweet-smelling liquid present in many everyday products, including paints, glues, and sealants. Produced from petroleum, it's practically insoluble in water but combines well with other liquids and solvents. For that reason, it's a popular chemical despite its toxicity and flammability.

What Is Xylene Used For?

Xylene solvent has multiple uses in industrial, medical, and automotive environments. Some of the most frequent applications include:

Paint and coatings : Many paint manufacturers use xylene as a thinner in paints and primers, and it's a common ingredient in enamels and varnishes. It's also present in many paint solvents because it can easily dissolve paints, resins, pigments, and adhesives.
Cleaning agents : Xylene is popular in cleaning solutions due to its ability to remove grease and other stains. It's also useful for removing unwanted substances from steel and electronic components, including silicon wafers and integrated circuits.
Pesticides : Residential and agricultural pesticides often contain xylene. It dissolves the pesticide to form a liquid that users can spray on crops or around their homes.
Other uses: Other uses of xylene include printing, rubber and leather processing, and medical applications, such as tissue processing. It also serves as a lubricant in some motor oil and brake fluid.

Because of its wide-ranging applications, xylene is one of the most produced chemicals in the United States. Its original uses date back to the 1800s, when a chemist discovered its presence in wood tar. Today, you can also find it in many plastic products and some food items.

Effects of Xylene Exposure

Despite its popularity as a solvent, xylene comes with serious disadvantages. It threatens both humans and wildlife, particularly aquatic creatures and plants. Understanding the potential consequences of using xylene solvent is vital to reducing its effects on workers and the environment.

Health Effects

Studies have repeatedly shown that xylene is hazardous to human health. According to the Centers for Disease Control (CDC), xylene exposure can have these troubling short-term effects :

Eye, nose, skin, and throat irritation
Headaches
Dizziness
Confusion
Loss of muscle coordination
Gastrointestinal distress

Ingesting, inhaling, or coming into contact with xylene solvent in small quantities can result in these temporary problems. Depending on the extent of the exposure and the age of the person, the effects might last a few hours or several days.

The Environmental Protection Agency explains that workers who experience frequent xylene exposure can also develop chronic health concerns . These issues are often neurological, including fatigue, tremors, and anxiety. Some people also experience lung and heart issues, such as heart palpitations, labored breathing, and severe chest pain. In the worst cases, high levels of xylene exposure can result in death.

Environmental Effects

In addition to harming humans, xylene is also dangerous to the environment. It can leak into soil, surface water, and groundwater during production, packaging, shipment, and use. Accidental spills can result in much larger amounts of xylene entering the environment, causing more severe and lasting contamination.

Although xylene quickly evaporates when it enters the air, it can remain in the water for longer periods. When it enters water sources such as rivers or ponds, xylene can harm or kill aquatic life.

Accidental spills can also result in the chemical leaching into groundwater and soil. This may damage agricultural and ornamental crops.

Substitutes for Xylene Bio-Based Solvents

While xylene is common, it's not the only choice for companies looking for powerful solvents. Bio-based solvents have the same strength without the health and environmental consequences.

The Benefits of Bio-Based Solvents

Petroleum-based solvents like xylene create health risks for painters, cleaners, and other workers and negatively impact the environment. Choosing a bio-based solvent allows you to achieve the same outcomes with minimal side effects.

For example, green solvents for the painting industry can clean epoxy, polyurethane, and other resins as effectively as other petroleum-based products. Unlike xylene solvent, however, they reduce volatile organic compounds (VOCs) and help keep workers safe and healthy.

Likewise, bio-based solvents for industrial cleaning are useful for paint stripping, graffiti removal, and equipment cleaning. They're strong enough to quickly remove unwanted substances without harming the underlying surfaces. At the same time, they're biodegradable and have low VOC emissions.

Finding the Right Xylene Alternatives

Introducing xylene substitutes to your products and processes requires research and careful consideration. You'll need a replacement that's environmentally friendly and safe without sacrificing power and potency.

Vertec offers a line of BioSolvent products designed to meet those criteria. Our citrus-based solvents are an excellent option for removing paint, resins, epoxy, and polyurethane. They're also high-powered and reusable, so you can reduce your solvent usage and cut costs.

Another bio-based alternative for xylene is VertecBio ELSOL XR . This solvent offers strong cleaning power with no pollutants or ozone-depleting chemicals (ODCs). For even greater environmental protection, ELSOL XR is also made from renewable resources and is easy to recycle.

VertecBio™ Citrus

A cost-effective, yet high-powered cleaner, VertecBio™ Citrus solvent cleaner products provide a better alternative to d-limonene, xylene, and toluene solvents.

VertecBio™ ELSOL® XR

VertecBio™ ELSOL® XR is a bio-based alternative for xylene, with enhanced cleaning power and reduced solvent usage.

Request a Sample of Vertec's Xylene Solvent Substitute

Xylene has been a go-to solvent for decades, but research and modern technology have made better options widely available. Choosing a bio-based solution protects workers, limits environmental damage, and creates a cleaner world. The best news is that you can accomplish all those goals without breaking your budget or giving up quality.

Vertec BioSolvents offers complimentary samples to allow you to learn more about us and try our products risk-free. Contact us to request a sample and discuss which solvents would be the best xylene solvent replacement for your needs.

Comparing Types Of Solvent Degreasers

Tue, 02 Jul 2024 16:52:40 GMT

Written by: Vertec BioSolvents

Keeping your equipment and work surfaces free of oil, grease, and grime is essential, but it's not always easy. For decades, solvent degreasers have played a central role in cleaning industrial spaces, but they also pose safety and environmental challenges. This post will give you a closer look at the different types of solvent degreasers and how to choose the best product for your needs.

What Is Solvent Degreaser?

A solvent degreaser is an industrial cleaning product that removes grease, oil, dirt, and other contaminants on surfaces and equipment. They consist of solvents, such as hydrocarbons, alcohols, and chlorinated solvents, that can dissolve unwanted substances that could cause contamination, an unsafe work environment, or equipment malfunctions. They're popular in a range of industries , including automotive, aerospace, and manufacturing.

What Are the Different Types of Solvent Degreasers

Solvent degreasers fall into three main categories. Each one offers distinct advantages and significant downsides to consider before choosing a solution for your organization.

Chlorinated Solvent Degreasers

Chlorinated solvent degreasers are one of the most popular options in industrial cleaning. Among the two most common are trichloroethylene (TCE) and perchloroethylene (PCE), both of which can eliminate oils and other contaminants found on parts and machinery.

Unfortunately, because these solvent degreasers are so powerful, they're also potentially dangerous. Studies have shown that they can increase the risk of cancer and cause other health concerns, including damage to the liver, kidneys, nervous system, and reproductive organs.

In addition to these potential effects, degreasers like TCE and PCE can harm the environment by increasing air pollution and depleting the ozone layer. To reduce the risk of these and other negative outcomes, some companies have opted to replace chlorinated solvent degreasers with alternatives, such as d-Limonene solvents , which have a smaller environmental impact.

Petroleum-Based Solvent Degreasers

Mineral spirits, kerosene, and other petroleum-based solvent degreasers are generally less expensive than chlorinated solvents. They're similarly effective at dissolving oils and other contaminants but still pose a hazard to human and environmental safety.

Petroleum-based solvent degreasers are flammable, requiring workers to handle them carefully. They also contain volatile organic compounds (VOCs) that evaporate into the air during cleaning, causing a strong odor, smog formation, skin irritation, and respiratory problems.

Aromatic Solvent Degreasers

Aromatic solvent degreasers, which contain solvents such as toluene and xylene, offer another way to dissolve oils and contaminants. Although they're less hazardous to human health than chlorinated and petroleum-based products, they're flammable and potentially dangerous if not handled properly by workers. During the cleaning process, these degreasers can also irritate the skin and respiratory system.

Other Types of Degreasers

If you're looking for an alternative to solvent-based degreasers, a growing number of options are available. These degreasers can clean machinery, equipment, and surfaces, but often have fewer negative impacts on health and the environment.

Water-Based Degreasers

The primary difference between water-based and solvent-based cleaners is that they're much more environmentally friendly and pose less safety risks. As a result, a growing number of industrial companies have begun using them as an alternative to more traditional solutions.

Formulated with surfactants and emulsifiers, water-based degreasers can break down and remove grease as well as oil in a way that's similar to solvent-based products. They're particularly popular with companies that have concerns about chemical contamination, such as the food and beverage industries.

Specialized Degreasers

Some industries with unique concerns or needs choose specialized degreasers, such as:

Alkaline
Enzyme-based
Acidic
Oxygenated

These degreasers have special characteristics that make them better suited to certain applications. For example, businesses in the hospitality industry often use enzyme-based degreasers because they cause minimal damage to surfaces when breaking down grease and oil. Acidic degreasers, on the other hand, are usually too potent for this purpose because they consist of much stronger chemicals that can eliminate mineral deposits and rust.

How to Choose the Right Degreaser

When selecting a degreaser for your company, your industry and application should guide your decision. To achieve the best results, you'll need to consider several factors, including:

The contaminant you need to remove: Find a solvent that will quickly and thoroughly remove the contaminants that you most frequently need to remove. For instance, chlorinated solvents are typically more effective at removing grease and oil, while petroleum solvents work better at dissolving paint and rust.
The surface material: Some solvents are too harsh for certain surface types and could damage your equipment, parts, or machinery. For example, chlorinated solvents generally aren't safe for use on aluminum and magnesium surfaces.
Cost and availability: Look for a degreaser that fits into your budget and will be available when you need it. Choosing the right solvent supplier helps ensure that you receive products on time and at a reasonable price.

If you're unsure of which type of degreaser is the best option, an industry expert like those at Vertec can provide valuable insights and guidance.

Safety Tips When Using Solvent Degreasers

No matter what type of degreaser you choose, safety is your top priority. To keep danger levels low, employees should always wear personal protective equipment (PPE), including gloves, goggles, and respirators, along with making sure the work area is well-ventilated. This helps prevent them from breathing in the vapors or suffering from chemical exposure to their skin.

Employees should also never eat, drink, or smoke while using solvent degreasers. When they're finished cleaning, they should follow your procedures and regulatory guidelines to dispose of them safely.

Looking for Quality Degreaser or BioSolvent Products?

When you need a degreaser that can get the job done without hurting your employees or the environment, take a look at our catalog of Vertec BioSolvent products . These low-odor and VOC solutions don't contain any environmentally hazardous ingredients and have high flash points, making fires less likely.

VertecBio Gold is a high-performing solvent that you can also use as a degreaser for parts cleaning. Contact us to request a sample and learn more about this and other products available from our catalog.

What Are Esters? Properties, Structures, and Uses

Tue, 25 Jun 2024 18:53:45 GMT

Written by: Vertec BioSolvents

Soybeans and corn might not be the first things that come to mind when you look for ways to clean machine parts, remove stubborn adhesives, or dissolve varnish. However, natural esters derived from these kinds of plants are an increasingly popular ingredient in industrial solvents, degreasers, and cleaners. Because they're biodegradable and non-toxic, they can serve as a safe, effective replacement for acetones and other harsh chemicals.

To understand what value esters offer for your industrial spaces, it's important to first learn what they are and how you can use them. In this post, we'll break down the details of esters, including where they come from, how you should store them, and what applications they offer.

What Are Esters?

Esters are organic compounds derived from acids, particularly carboxylic acids. When producing esters, hydrogen is replaced by a methyl, ethyl, or phenyl hydrocarbon group. In other words, esters are developed when an alcohol group bonds with a group of organic acids, which replace water molecules. They're commonly present in organic and biological materials and have a unique fruity smell.

How Are Esters Formed?

Esters are formed by a condensation reaction called esterification, which occurs between alcohols and acids. In many cases, esterification is the result of treating carboxylic acid with an alcohol and a dehydrating agent and using sulfuric acid as a catalyst. Another method involves using acyl chlorides and acid anhydrides alcoholysis to produce esters.

How to Handle & Store Esters

Esters are organic and typically pose a low risk to the environment. However, they're highly flammable and can react volatilely when they come into contact with other chemicals. As a result, they require very careful handling and storage.

To minimize risk and maintain stable conditions, you should store esters in a dry, secure environment. Most storage tanks for esters are made of carbon, aluminum, or stainless steel. The tanks should exclude air and moisture, and they don't require external heating because of the low freezing point of ester liquids.

What Are The Different Types of Esters?

Esters fall into two categories: natural and synthetic. While both are suitable for use in solvents and other products, there are some important differences between them.

Natural

The most defining characteristic of natural esters is that they come from renewable sources. They're produced from vegetable oils taken from plant crops, such as corn and soybeans. These plants produce esters as part of their growth cycle.

When using natural esters, the specific type of oil base differs based on the application. Solvents made with natural esters can replace those made with dibasic esters , which are petroleum-based and thus more hazardous to people and the environment.

Compared to synthetic esters, natural esters have higher pour points. As a result, they're more appropriate for use in indoor locations or places without extreme temperature fluctuations.

Synthetic

While natural esters are derived from vegetable oils, chemists manufacture synthetic esters using select raw materials. To produce a synthetic ester, they choose acids and alcohols and use esterification and heat to produce the ester and remove excess water. In doing so, they can create an ester that's specific to certain applications, such as industrial cleaning or lubrication.

Synthetic esters have oxidation stability and a lower pour point than their natural alternatives. Because of these factors, they're sometimes a better option for colder environments or systems where the substance might come into contact with oxygen from the air.

Practical Uses Of Esters

Esters have wide-ranging applications that span multiple industries. Because of their pleasant smell, they were initially most common in the flavor and fragrance industry, where they're used in perfumes, essential oils, food flavorings, and cosmetics. In recent years, their uses have expanded significantly, particularly when it comes to manufacturing and industrial environments.

Industrial Applications for Esters

For industrial companies, esters aren't appealing because they smell good—although that might be a nice bonus. These types of businesses use esters because they're highly effective organic solvents capable of dissolving a variety of substances, including:

Coatings
Paints
Varnishes
Adhesives

They're also used in cleaning and degreasing products. Unlike many other solvents and cleaners, which are often carcinogenic or dangerous to humans, esters are typically non-toxic.

Advantages of Using Esters

If you're looking for a safe, environmentally friendly solvent, esters are a solution worth considering. For example, soy methyl ester offers several environmental and safety benefits. It's a sustainable substance that you can use to remove oils, grease, and resins without creating hazardous waste or releasing volatile organic compounds (VOCs) into the atmosphere. Other products developed with esters offer similar advantages, and their cost is also often lower than petro-based products.

Natural Esters in Action

In the past, some companies were reluctant to switch to solvents made with natural esters because of concerns about whether they could properly clean or dissolve difficult substances. Fortunately, modern ester solvents are equally as or more effective than the traditional alternatives.

Vertec offers products made with a formula of vegetable esters derived from soybeans and corn. One is VertecBio Gold #2EG , which is good for formulating parts cleaners, industrial cleaners, hand cleaners, and other institutional and janitorial products. A second product, VertecBio Gold #3EG , is suitable for formulating mastic or adhesive removers, asphalt cleaners, release agents, and hand cleaners.

Both these products allow for thorough and intensive industrial uses. At the same time, they're free of environmentally damaging ingredients, ozone-depleting chemicals, and hazardous air pollutants, allowing you to effectively maintain your industrial equipment and surfaces without causing unnecessary harm to the planet.

See the Vertec BioSolvents Collection

Vertec Biosolvents offers environmentally friendly, high-quality solvents that can replace hazardous, petroleum-based chemicals. Vertec products are bio-based and sustainable without sacrificing performance.

We use natural esters and other natural, non-toxic ingredients to formulate the best alternatives to more traditional but toxic chemicals. Contact us to learn more about our approach to sustainable solvents or to request a sample of one of our products.

VertecBio™ EL Ethyl Lactate

VertecBio™ EL Ethyl Lactate solvents offer a 100 percent biodegradable way to cut through paints, coatings, and inks, making them a high-powered choice for cleanup.

VertecBio Gold® #1EG

Our patented formula, VertecBio Gold® #1EG contains the highest level of ethyl lactate of any bio-based solvents in the VertecBio Gold® product portfolio.

VertecBio™ Gold® #2EG

VertecBio Gold® #2EG is a patented formula of vegetable esters derived from soybean and corn, and is ideal for formulating parts cleaners, industrial cleaners, hand cleaners, and other institutional and janitorial products.

VertecBio™ Gold® #3EG

VertecBio Gold® #3EG is a patented formula of vegetable esters made from soybeans and corn, and is ideal for formulating mastic/adhesives removers, asphalt cleaners, release agents, and hand cleaners.

VertecBio™ ELSOL®

VertecBio™ Ethyl Acetate

VertecBio™ Ethyl Acetate Bio-Based is a 100 percent biodegradable, high performance, versatile bio-based solvent that is great for formulating and cleanup while leaving no residue.

Tips for Creating a More Sustainable Manufacturing Business

Tue, 23 Apr 2024 19:06:12 GMT

Written by: Vertec BioSolvents

In the past, many people associated the manufacturing industry with pollution, toxic waste, and harm to the environment. That reputation was built on some unfortunate truths, including the fact that manufacturing facilities consume massive amounts of energy and use hazardous materials to produce essential items.

Modern manufacturing businesses are working hard to remedy those issues and become as green as possible while still serving the public's needs. In this post, we explain the importance of sustainability for manufacturers and what you can do to reduce your ecological footprint .

What Is Sustainable Manufacturing?

Also referred to as green or eco-friendly manufacturing, sustainable manufacturing is an important movement in the industrial sector. The Environmental Protection Agency (EPA) describes it as using eco-friendly practices and conserving resources and energy when manufacturing products. The primary goals of this type of manufacturing include:

Limiting pollution and emissions
Preventing harm to the local environment
Reducing waste energy and water consumption
Improving safety for workers and nearby communities

Manufacturers use a variety of strategies to meet these objectives and improve their sustainability.

Why Does Sustainable Manufacturing Matter?

As the effects of climate change have become more severe, many organizations have acknowledged the need to create a cleaner, healthier world. This is especially true for the manufacturing sector, which the Congressional Budget Office estimates was responsible for 12% of greenhouse gas emissions in the United States in 2021.

Recognizing that the industry has such a significant effect on the environment, companies have begun adopting sustainable manufacturing practices in an attempt to reduce their carbon footprints. In addition to meeting the moral obligation for environmental protection, sustainability also offers several other benefits, including:

Greater customer trust and confidence
Fewer chances of negative media coverage due to environmental disasters, such as oil spills or toxic leaks
Cost-savings due to improved energy, water, and raw material efficiency
Lower likelihood of violating governmental and industrial regulations, reducing the risk of audits and penalties

These advantages and the increasingly dire need to mitigate the impacts of climate change have proven very compelling for leaders in the manufacturing sector. In a 2022 survey by the Manufacturing Leadership Council, 90% of respondents said that manufacturers have a responsibility to become more sustainable.

How to Become More Sustainable

The path to sustainability isn't the same for every organization, and the way you adjust your practices will ultimately depend on the function, size, and structure of your facility. However, there are some general principles that all manufacturers can follow to move closer to becoming green.

Eliminate Fossil Fuels

As much as they might try to curb their energy consumption, manufacturers will always need a significant amount of energy. That doesn't mean they have to continue depleting natural resources and fossil fuels.

Switching to renewable energy sources, including solar, wind, and biomass, can help limit the impact of the industry's massive energy needs. A manufacturing facility that runs fully or partially on renewable energy has a much smaller carbon footprint than one that relies on fossil fuels.

Decrease Pollution

Manufacturing plants can become more sustainable by lowering the amount of pollution they produce. These pollutants can affect the air, water, and soil, potentially damaging ecosystems, animal life, and human health.

These are a few of the steps your facility can take to limit pollution:

Using pollution prevention practices, including implementing technology solutions that minimize pollutants
Implementing pollution control measures, such as wastewater treatment systems
Establishing pollution monitoring programs to analyze the company's environmental impact and look for opportunities to improve

Manufacturers can also reduce pollution by choosing eco-friendly materials, such as organic solvents . Solvents are critical to cleaning and production processes for many organizations, but they're often toxic. Businesses in many industries use biosolvents as a substitute for petroleum-based solvents, which pose a serious threat to the environment.

Recycle

Manufacturing facilities produce enormous amounts of waste, and recycling is key to addressing this problem. One basic step is to increase the amount of used materials that you incorporate into your production processes. For example, you can collect products at the ends of their lifecycles and reuse them in new products rather than destroy or dispose of them.

Closed-loop manufacturing, also known as circular economy, is another important part of this effort. With this approach, manufacturers intentionally design products and processes so that they can recycle or reuse the materials involved.

Reduce Waste

Recycling can help limit manufacturing waste, but it's also vital to address the problem at its root. That might require conducting a waste audit to determine how much waste you produce and where you can make changes.

Manufacturers committed to waste reduction use lean manufacturing principles, reducing their inventory and optimizing production processes. Technology may also offer solutions, as sensors and monitoring systems can detect areas with excessive waste so you can modify or repair them.

Time-Saving Practices

At first glance, time wouldn't seem to have much of a connection to sustainability. In reality, a lack of efficiency can substantially worsen your company's environmental impact. Working quickly not only makes you more productive but also helps reduce ozone depletion and other negative effects.

To streamline your manufacturing processes, develop and refine your standard operating procedures to create consistency. Create checklists and guides so all your employees are on the same page. Additionally, work with suppliers and partners, including solvent suppliers , to optimize delivery times so delays don't interfere with your scheduling.

How is VertecBio Helping Companies Become Sustainable?

VertecBio has an important part to play in making the manufacturing industry more eco-friendly. Our green solvents use biodegradable materials that are safer for the environment and the people who come into contact with them. We work with manufacturers to find the right solutions to replace traditional solvents that are crucial to their processes.

To learn more about our bio-based solvents, contact our team of experts. We'd love to discuss your vision of sustainability and how our solvents can help make it a reality.

Solvent Recovery vs Solvent Distillation

Wed, 06 Mar 2024 21:53:00 GMT

Written by: Vertec BioSolvents™

Businesses, laboratories, and manufacturers are facing increasing pressure to make their operations more environmentally friendly. One of the primary areas of concern is the enormous quantities of solvents they use on a daily basis. Solvent recovery and solvent distillation can help reduce the impact of solvents by allowing you to reuse them rather than throwing them away.

Before you can adopt a solvent distillation or recovery system, you'll need to have a clear understanding of what sets them apart. This post reviews the key differences between the two processes and gives you guidance on how to decide which is the best option for your needs.

What Is Solvent Recovery?

Also known as solvent extraction, solvent recovery is the process of isolating chemical compounds based on their solubilities. You can use solvent recovery equipment to separate hazardous or unnecessary materials from usable solvents.

Methods and Applications

Solvent recovery is a multi-stage process during which you separate the solvent into its components and remove the waste. Once the process is complete, you're left with a clean solvent that you can reuse.

Some of the most common methods of solvent recovery include adsorption, membrane separation, and liquid-liquid extraction. Because solvents are useful in a variety of industries , recovery is also popular for many different types of organizations, such as:

Pharmaceuticals
Manufacturing
Vegetable oils
Perfume
Food
Cosmetics
Mining

Depending on your industry and needs, you can recover a wide range of solvents. The possibilities include acetone, isopropyl alcohol, methanol, butanol, and blanket wash.

Benefits

The solvent recovery process allows you to recycle and reuse solvents rather than discard them. This offers a variety of benefits, including decreasing the risk of environmental damage and production of hazardous waste.

Because businesses can limit the amount of new solvents that they have to buy, they can also achieve substantial cost savings. Most importantly, they can do so without worrying that the quality will have negative or harmful effects. When your recovery equipment works properly, the recovered solvent should be nearly identical to original solvent products.

What Is Solvent Distillation?

Solvent distillation uses heat and pressure to separate solvent components, removing contaminants and creating high-quality recycled solvents. There are several types of solvent distillation, including:

Vacuum
Simple
Zone
Steam
Fractional

Simple and fractional are the most common for solvent recycling. When using fractional distillation, you'll separate mixtures of two liquids that have different boiling points. By heating the chemical compounds to their boiling point, the distillation system can vaporize specific compounds in the liquid and separate the solvent into separate parts.

The next step is cooling and re-condensing the usable components of the solvent so that you can use them again. The remaining waste is in its own container so that you can dispose of it as necessary.

As with solvent recovery, the ultimate goal of solvent distillation is to obtain a solvent that's essentially indistinguishable from a new product. This helps you minimize harmful effects on the environment and limit the amount of solvents you have to purchase.

Key Differences Between Solvent Recovery and Solvent Distillation

Although solvent recovery and distillation have similar purposes, they're not one and the same. Knowing the differences between them is essential when deciding what type of system you want to use in your operations.

Processes

The most obvious characteristic that separates these two processes is the fact that distillation can only purify a substance when it's in its liquid phase. It begins by heating a liquid mixture to form a vapor and then cooling it, leaving the purified liquid.

Recovery, on the other hand, can purify a substance regardless of whether it's a liquid or solid. As a result, it's appropriate for use in a wider range of industries and applications.

Applications

Although multiple types of businesses or manufacturers can use distillation, it's most common in the petroleum and solvent industries. For instance, organizations might use it to separate methanol and ethanol from water or acetic acid from acetone.

The use of solvent recovery is much more widespread. It's beneficial for food production, pharmaceutical, and fragrance companies, among others.

Factors Influencing the Choice Between Solvent Recovery and Solvent Distillation

Choosing the right solvent supplier can save your business time and money, and selecting the ideal solvent recycling process can do the same. Some organizations use both solvent distillation and solvent recovery, but others opt for one or the other.

If you're deciding between the two options, consider these central points:

Cost: Distillation is generally more expensive, particularly when you're working with complex solvents. If keeping costs down is a top priority, recovery may be the better choice.

Purity needs: In some cases, distillation might offer a higher purity level than recovery. Evaluate the specific solvents you want to recycle before deciding which system to use.
Sustainability: Distillation is more energy-intensive than recovery. As a result, solvent recovery is usually preferable if you want to reduce your energy use and limit your environmental impact as much as possible.
Efficiency: Recovery is usually less time-consuming than distillation. Companies that want to make their operations more efficient might struggle with the lengthy distillation process.
Space: Small businesses with limited space may not have enough room for distillation equipment. It tends to be larger than other types of solvent recycling systems.

Regardless of whether you use recovery or distillation, you can enhance your sustainability by switching to safe solvents . Using green solvents makes solvent recycling eco-friendly from start to finish, while also protecting your employees and your bottom line.

How Can VertecBio Help?

VertecBio offers a line of eco-friendly products that replace traditional, petroleum-based solvents. With our green solvents and a quality solvent recovery or solvent distillation system, you can reach your sustainability goals and contribute to a cleaner planet for future generations.

If you're searching for environmentally friendly products, our unique solvent formulations are an ideal solution. Contact our team to learn more about bio-based solvents, solvent recycling, and working safely with solvents.

How to Clean My Press Parts

Fri, 23 Feb 2024 21:50:54 GMT

Written by: Vertec BioSolvents™

Modern printing presses are complex machines, and they need regular upkeep to achieve high-quality results. Unfortunately, your press wash might be inefficient, expensive, and hazardous to people and the environment. In this post, you'll learn how to clean press parts, what cleaning solutions are available, and why organic solvents are an ideal option.

The Importance of Press Maintenance & Cleaning

Regularly maintaining and cleaning your press offers a number of important benefits, including:

Preventing issues with quality
Allowing the system to operate more efficiently
Lowering ink costs
Reducing paper waste

Over time, printing presses accumulate ink, paper pulp, dust, and other debris, all of which cause quality issues. They can distort prints, throw off alignment, and lead to excessive waste and high scrap rates.

In addition to hurting the quality of your prints, using a press with unclean parts can negatively affect your productivity. Your machine won't operate at its optimal speed and will be more likely to break down or experience blockages. All these issues cost your company valuable time and resources.

Types of Cleaning Solutions for Presses

The printing industry relies on three types of press washes to care for blankets, rollers, and other parts. Knowing the differences between them allows you to make a more informed decision about which is the best choice for your business.

Cleaning with Solvents

Printers have long relied on petroleum-based solvents. They're convenient and effective, and they're often multipurpose.

However, these solvents carry certain risks, including:

Fire hazards, particularly when handled incorrectly
Harm to human health if inhaled or ingested
Environmental damage

Companies also need a safe and appropriate location to store and handle flammable solvents. An ATEX room takes up space that isn't readily available to some printers.

Bio-based solvents can mitigate many of these risks, making press cleaning and maintenance less dangerous for employees and the world around them. For example, VertecBio™ Gold is an eco-friendly solvent for paints, coatings, and inks, that you can also use as a degreaser for press parts. Its high flash points and low VOCs make it a much less hazardous option compared to petroleum-based solvents.

Cleaning with Non-Flammable Liquids

For printing companies that are especially safety-conscious, non-flammable liquids are appealing for press cleaning. They're non-corrosive and non-evaporating, making them more environmentally friendly than petroleum-based solvents.

Because of their composition, non-flammable liquids make work environments safer for your employees and ease fire concerns. They're easier to handle and don't require as many special pieces of equipment or procedures.

Despite these benefits, some companies avoid non-flammable cleaning solutions because they aren't as powerful as solvents and alkaline liquids. This can make it more difficult to effectively clean your press, particularly when dealing with dried inks and adhesives.

Cleaning with Alkaline Liquids

When dealing with ink that's difficult to remove, some printers turn to alkaline liquids. They're capable of handling stains from ink, adhesives, and coatings, and they don't require a dedicated ATEX room.

On the other hand, alkaline liquids aren't as easy to use and involve more specialized equipment than other options. As a result, they're less worker-friendly than nonflammable liquids and bio-based solvents.

Step-By-Step Cleaning Guide

The exact procedure for cleaning a printing press depends on the model and design of your machine. However, it typically involves a similar series of steps.

Prepare the Cleaning Solution

Depending on the type of solution you're using, you may have to combine it with water. This is often the case with petroleum-based solvents, as it helps reduce damage to the press.

Clean the Print Rollers and Parts

Many modern printing presses have automated cleaning cycles. If you have this type of press, you can clean your print rollers by adding a solvent to the chambers and, if necessary, initiating the cleaning cycle.

Without an automated system, you'll need to manually clean your rollers by applying a solvent. Once the rollers are clean, wipe it away, along with any remaining residue.

Clean the Blanket

As with rollers, some printing companies use automated systems to clean their blankets. Others opt to wash them by hand, applying and then wiping off the cleaning solution.

Troubleshooting Tips

It's not unusual to encounter problems while cleaning your press. When that happens, try these strategies to solve them:

Stubborn stains: If you're struggling to remove ink or other debris from your press, your blanket and press wash may be to blame. High-performance solvents designed specifically for the printing industry, such as VertecBio Ink Zapper, can dissolve hardened and dry ink for better cleaning.
Damage to press parts: Using a solvent that's too harsh for printing press parts, including blankets and plates, can damage the machine. Be sure to choose a solution that's proven safe for printing presses.
Films and stickiness: If you use an ineffective press wash or fail to clean your press regularly, the parts may develop a film or become sticky. Consistently cleaning your press with an effective bio-based solvent will prevent these issues from developing.

Ultimately, the solvent or other cleaning solution that you choose will have the greatest effect on your ability to keep your press working correctly and efficiently.

Why Choose Organic Solvents with Vertec BioSolvents?

Before you pick a press wash, consider not how it will impact your productivity and quality control, as well as the safety of others. Vertec BioSolvents' line of solvents are high performance yet also environmentally friendly.

For instance, the Vertec BioSolvents' Ink Zapper can remove ink, paper residue, and lint and clean pipe rollers without water. It's safe for employees to handle and is completely biodegradable with no hazardous air pollutants. Even better, it reduces solvent usage up to 60 percent. This bio-based alternative for washing printing presses and blankets is an ideal option for companies that want to maximize their efficiency and cost savings while also protecting workers and the environment.

VertecBio™ Ink Zapper® patented blend is a high-performance, economical and bio-based alternative for washing the printing press and blanket. It is a non-toxic formula that is completely safe for employees to handle. VertecBio™ Ink Zapper® reduces solvent usage up to 60 percent saving you time and money.

Rea ch out to learn more about the products available from Vertec Biosolvents or request a free sample.

12 Principles of Green Chemistry

Wed, 31 Jan 2024 14:50:51 GMT

Written by: Vertec BioSolvents

Chemistry creates possibilities, allowing organizations across virtually every industry to work more safely, efficiently, and effectively. Unfortunately, the production and use of chemicals can also have serious impacts on local and global communities. From contributing to unsafe water and air conditions to causing catastrophic accidents, chemical processes have the potential to do significant harm to people and the planet.

Green chemistry presents a solution to the problems presented by traditional chemical processes and products. In this post, we describe the 12 principles of green chemistry and explain why they're so important to creating a safer and more sustainable world. We also explore how green solvent technology contributes to this eco-friendly chemistry movement.

What Is Green Chemistry?

Green chemistry is an approach to chemical processes that focuses on reducing and preventing pollution. It involves finding alternative reaction media and developing sustainability programs that minimize the negative impacts that chemicals can have on the environment and human health.

The concept of green chemistry has existed for several decades, but it has become an increasingly urgent shift. The effects of pollution have become more severe, inspiring organizations around the world to revolutionize their approach to chemical production. Following the principles of green chemistry is central to the effort to reduce risks and minimize environmental impacts.

Unlike remediation efforts, which aim to remove hazardous materials that are already present, green chemistry seeks to prevent them from entering the environment in the first place. For that reason, it's relevant in all areas of chemistry and addresses both existing products and processes as well as new developments in the industry.

One important component of this type of chemistry is designing chemical products and processes that allow users to move away from hazardous substances. For example, green solvents have many benefits compared to traditional solvents. They're eco-friendly, non-toxic or low toxicity, and sustainable.

The 12 Principles of Green Chemistry

In their book, Green Chemistry: Theory and Practice , Paul T. Anastas and John C. Warner outlined a list of principles that chemical companies could implement to reduce their environmental impact. Although they were originally published in 1998, these same principles are still used widely today.

1. Prevention

Preventing waste is a more effective and efficient option than trying to clean up or treat it once a process is already complete. When a chemical process results in waste, it can cause long-lasting damage regardless of how quickly it's addressed. Prevention eliminates that opportunity and is more cost-effective than treatment and removal.

2. Atom Economy

The fewer atoms you waste during a chemical process, the better. Use synthetic methods that maximize the use of starting materials, incorporating as many as possible into the final product so that you waste a small number of atoms.

3. Less Hazardous Chemical Syntheses

Prevent harmful effects on the environment and human health by designing synthetic methods that use and generate substances with little or no toxicity. While toxic substances are unavoidable in certain situations, look for opportunities to find alternate means that achieve the same results.

4. Designing Safer Chemicals

Seek a balance between safety and effectiveness. Design chemical products that have the desired function without posing a risk of adverse effects.

5. Safer Solvents and Auxiliaries

Only use auxiliary substances, including solvents and separation agents, when absolutely necessary. However, these substances are crucial to some chemical processes. When they're needed, opt for safer products, such as Vertec's line of bio-based solvents .

6. Design for Energy Efficiency

Chemical production requires a significant amount of energy, much of which comes from fossil fuels. Minimize the energy requirements for chemical processes. For example, run chemical reactions at room temperature and pressure levels whenever possible.

7. Use of Renewable Feedstocks

Feedstocks, also known as starting materials, are often made from depletable materials, such as petroleum, natural gas, and coal. Shifting to renewable materials helps lower the demand for these limited resources. These feedstocks are often drawn from agricultural products or waste from other processes rather than fossil fuels.

8. Reduce Derivatives

Blocking groups, protecting groups, and short-term modifications to physical and chemical processes typically require excessive reagents and produce unnecessary waste. Avoiding derivatives reduces the need for reagents and limits waste production.

9. Catalysis

To reduce waste, use catalytic rather than stoichiometric reagents. Smaller amounts of catalytics can produce the same effects as larger quantities of stoichiometrics, and they're capable of producing a single reaction multiple times because they aren't consumed during the process. Stoichiometric reagents, on the other hand, can only carry out a reaction a single time.

10. Design for Degradation

Preventing chemical products from accumulating in the environment is essential to minimizing their impact. Design products that will naturally degrade after use. They'll break down into innocuous products that won't have a serious environmental effect.

11. Real-Time Analysis for Pollution Prevention

Monitoring the chemical production process is critical to reducing or eliminating dangerous byproducts. Organizations should continue to develop methods that allow for accurate in-process analysis. This also enables them to maintain control over the formation of potentially hazardous substances.

12. Inherently Safer Chemistry for Accident Prevention

Accidents, including fires, explosions, and unplanned chemical releases, can cause severe damage to human populations and environmental conditions. Carefully choosing substances and their forms, whether solid, liquid, or gas, is vital to reducing risk levels and limiting the number of accidents that occur.

Vertec's Green Solvent Technology in Green Chemistry

At Vertec BioSolvents , we're committed to the 12 principles of green chemistry and their power to create a cleaner, more sustainable industry. Our eco-friendly products play an important part in replacing petroleum-based solvents, which contribute to pollution and unsafe conditions. At the same time, our solvents are designed to be reliable, affordable, and equally effective as the traditional alternatives.

To learn more about our bio-based solvents, reach out to our team of experts. We're happy to answer your questions and help you find the best solvents for your needs.

What Are Industrial Solvents & How to Reduce Their Impact

Wed, 13 Dec 2023 22:24:15 GMT

Written by: Vertec Biosolvents

Industrial solvents play a critical role in various manufacturing processes, but their environmental impact continues to raise concerns. This blog explores the role of industrial solvents while focusing on different types and their applications. Additionally, we’ll explore the development and impact of solvents and ways to reduce your company’s environmental footprint by adopting green industrial solvents instead.

What are Industrial Solvents?

Industrial solvents are substances used to dissolve, dilute, or extract materials in manufacturing processes. These chemicals facilitate tasks that involve dissolving materials, diluting other chemicals, or chemical extraction that further influences how these products affect other industries. They are integral in industries such as pharmaceuticals, cosmetics, paints, inks, coatings, cleaning, degreasing, agriculture, and automotive.

Main Properties of Green Solvent Development

Green solvents, also known as bio-based solvents, minimize environmental impact while still effectively working the way they’re expected to. These alternatives aim to reduce reliance on fossil fuels, minimize toxicity, and enhance biodegradability. The overall goal of using these solvents is to contribute to a more sustainable and environmentally friendly industrial landscape. More about these key properties includes focusing on:

Environmental Friendliness—we derive green solvents from renewable resources, reducing dependence on fossil fuels. This promotes sustainability and minimizes carbon footprint.
Low Toxicity—unlike traditional solvents that may be harmful, green solvents exhibit lower toxicity, making them safer for both human health and the environment.
Biodegradability—bio-based solvents are often more readily biodegradable, reducing the risk of persistent environmental pollution.
Reduced VOC Emissions—Volatile Organic Compounds (VOCs) contribute to air pollution. Green solvents aim to have lower VOC emissions, improving air quality.

Types of Solvents

Industrial solvents are not just chemicals used in manufacturing processes. They are a cornerstone of modern industry that enables product creation, affecting many different industries. Recognizing and making the right choices about their usage is based on understanding and identifying how and when to use them. Solvents are usually categorized into three main types based on chemical composition:

Hydrocarbon Solvents

These are derived from petroleum, including aliphatic and aromatic solvents, and are commonly used in paints, coatings, and cleaning products. Aliphatic solvents, known for their straight-chain structure, find extensive use in cleaning products, where their excellent solvent properties help break down contaminants effectively. Aromatic solvents, with their ring-shaped molecular structure, are commonly employed in paints and coatings because of their ability to dissolve resins and pigments, contributing to the formulation of high-quality finishes.

Oxygenated Solvents

These solvents contain oxygen atoms and include alcohols, ketones, and esters. They are found in pharmaceuticals, cosmetics, and some industrial cleaning applications. Alcohols, such as ethanol and isopropanol, are prevalent in pharmaceuticals and cosmetics, serving as carriers for active ingredients and ensuring product stability. Ketones, including acetone, find applications in industrial cleaning, where their strong solvent properties make them effective in removing tough residues. Esters, with their pleasant fragrance, are often used in the formulation of perfumes and personal care products.

Halogenated Solvents

These solvents contain halogen atoms, like chlorine or fluorine, and are frequently used in pharmaceuticals and as degreasers. The presence of halogen atoms enhances their effectiveness in breaking down and dissolving complex compounds, making them invaluable in pharmaceutical formulations. In degreasing applications, where the removal of stubborn residues is paramount, halogenated solvents prove their mettle. Their usage is also more targeted than other solvent types.

Applications for Solvents

To harness the benefits of industrial solvents responsibly, it is essential to delve into their properties and impact. Each solvent type possesses distinct characteristics that influence its suitability for specific applications. Factors such as volatility, toxicity, and biodegradability are crucial considerations in selecting the right solvent for a given task. Solvents find diverse applications across industries, each serving specific purposes:

Pharma

Solvents play a crucial role in drug formulation, extraction, and purification processes. They are critical in creating suspensions and emulsions. They’re also used to extract active ingredients from raw materials in a way that will meet the industry’s strict quality standards.

Cosmetics

Used in the formulation of skincare and beauty products, solvents help achieve desired textures and consistencies. Solvents are key players in the cosmetics industry, where the formulation of skincare and beauty products demands precision. From creating fragrances to achieving the desired consistency in creams and lotions, solvents contribute to the aesthetic and functional aspects of cosmetic formulations.

Paints, Ink, & Coatings

Solvents contribute to the formulation of paints and coatings , aiding in spreading and drying processes. The world of colors and protective coatings relies heavily on solvents. In the formulation of paints and coatings, solvents help dissolve pigments, ensuring even distribution and promoting proper adhesion to surfaces. Their role extends to the printing industry, where inks are formulated to meet specific printing requirements.

Cleaning & Degreasers

Industrial cleaning and degreasing processes rely on solvents to act as powerful agents capable of dissolving and removing stubborn residues, such as grease, oil, and other contaminants that accumulate during regular operations. Whether it’s cleaning machinery, degreasing surfaces, or ensuring the quality of manufactured components, solvents prove indispensable in maintaining operational efficiency. This thorough cleaning not only promotes the longevity of the machinery but also helps prevent potential malfunctions and breakdowns.

Agriculture

Solvents are used in the formulation of pesticides and herbicides in the agricultural sector . These chemicals aid in creating effective solutions for crop protection, ensuring the health and productivity of agricultural endeavors.

Automotive

From manufacturing processes to maintenance, solvents play a vital role in the automotive industry. They play a crucial role in the production of automotive coatings, adhesives, and sealants. In maintenance and repair, solvents are used for cleaning and degreasing vehicle components, ensuring optimal performance.

Test Bio-Based Solvents with Vertec BioSolvents

As industries continue to rely on solvents for various processes, it becomes crucial to make informed choices that minimize environmental impact. The development of green solvents and the adoption of sustainable practices contribute to a more responsible and eco-friendly industrial landscape. This pursuit has led to the development of green solvents, aiming to provide sustainable alternatives without compromising performance.

To embrace sustainability and reduce environmental impact, consider exploring bio-based solvents offered by Vertec BioSolvents. These solvents undergo rigorous testing to ensure they meet industry standards while prioritizing eco-friendliness. Contact Vertec BioSolvents with any questions you might have, and discover how you can reduce the impact of industrial solvents in your own organization.

What is a Green Solvent & Are They Helpful?

Thu, 19 Oct 2023 20:38:02 GMT

Solvents are formulated to dissolve other substances. They are often liquids but can also be gasses, solids, or supercritical fluids. Examples of products that often use solvents include:

Nail Polish Remover
Glue Solvents
Paint Thinner
Detergents
Spot Cleaners

They’re helpful because they get out those otherwise pesky stains or dissolve that film that nothing else will get off. Green solvents can do all of those things, but the difference is that they’re made with soybean derivatives, citrus , corn, and other sustainable resources. This makes them a great choice when it comes to working effectively while also minimizing your industrial carbon footprint .

What Are Green Solvents?

Eco-friendly green solvents are used in various industrial applications helping to minimize their environmental footprint. These solvents are deliberately formulated to achieve two primary objectives: reducing toxicity and conserving energy resources.You’ll know it’s a green solvent if it checks these boxes:

Non-toxic or Low Toxicity
Low Environmental Impact
Sustainable
Low VOCs
Biodegradable

When a solvent is labeled as non-toxic, it means that it poses a lower risk of causing issues for people who work with it. Bio-based solvents are designed to have a lower impact on the environment , and many come from renewable resources. That means a lower reliance on fossil fuels, which is a win-win for suppliers.

As a result of their composition, bio-based solvents are also biodegradable and break down into harmless substances, naturally reducing pollution . Their design also lends itself to a lower volatility, meaning fewer emissions are released into the atmosphere.

Traditional Solvent vs. Green Solvent

Traditional solvents and green solvents do the same jobs, but they’re different in some significant ways. For example, when it comes to environmental impacts, traditional solvents are typically negative for the environment because of how they contribute to pollution and groundwater contamination. Green solvents are created to increase eco-friendliness by being biodegradable and reducing pollution.

Traditional solvents also pose a significant toxicity problem. They threaten the health of humans, animals, and the environment. Green solvents , on the other hand, are less harmful to people, pets, and the outdoors, making them a much better option.

Solvents can also come from a variety of sources. Traditional solvents come from fossil fuels, whereas green solvents are made from renewable resources. The overall effort to reduce reliance on fossil fuels further encourages sustainability.

Energy efficiency is another major player in the production of solvents. Traditional solvents usually require higher energy needs with the negative consequence of associated greenhouse gas production. Green solvents actually require less energy to make and use, and as they are also environmentally friendly, greenhouse gasses are not an issue.

One of the other issues that come into question when comparing traditional solvents with green solvents is regulation and compliance alongside cost. If you've used conventional solvents before, you probably know how strict the rules are for using and getting rid of them in your industry . Adhering to these regulations can also result in increased expenses for your business. However, green solvents are more user-friendly in this regard as they inherently align with most regulations, simplifying the process of meeting regulatory requirements. So, while green solvents may be more expensive up front, they are far more cost-effective in the long run.

How Are Green Solvents Beneficial?

Green solvents are beneficial in many ways. Some of the benefits include:

Eco-friendly
Non-toxic or have low toxicity
More sustainable
Not contributing to greenhouse gas emissions
Better for worker health and reducing chemical exposure
Energy-efficient
Driving innovation and research in sustainable technologies
Better for your wallet in the long term
Naturally reducing reliance on finite resources

Ultimately, they’ll address many of the existing environmental concerns across a variety of industries while encouraging alignment with sustainable principles.

Transitioning to Green Solvents

Transitioning from traditional solvents to green solvents doesn’t have to be difficult, and if you take a systematic approach, it will be easy to help your customers or clients make the change.

You’ll want to have them start by assessing the current solvents that they use. Be sure they note the types, quantities, and processes so they can see where changes need to be made. You can then identify green alternatives that would work for their particular applications. They should also conduct compatibility testing to make sure other solvents don’t have an adverse reaction to the new addition.

Remind them to evaluate health and safety implications whenever they transition to new solvents. This includes updating exposure information provided to employees, in addition to any new safety procedures that need to be updated as well.

Once decisions have been made, you may need to assist in training their personnel so they handle the storage and disposal appropriately. While green solvents are much safer, there are still procedures that must be followed as per regulatory requirements.

Suppliers and scientists also constantly evaluate performance to see if there are any improvements as a way to always stay on top of progress and changes to regulation requirements.

Applications for Green Solvents

Green solvents have the same applications as traditional solvents to include:

Cleaning
Degreasing
Coatings and Paint
Sealants
Adhesives
Extractions
Food and Beverage Processing
Agrochemicals
Printing Inks
Electronics Manufacturing
Cosmetics
And more!

With advancing technology, making environmentally friendly green solvents can be good for the environment and the safety of workers. Vertec has its own line of products that include different green solvents, each designed for specific tasks. Whether you need to clean off asphalt or make paint, there's a green solvent that can do the job safely and with less harm to the environment.

Choose a Reputable Green Solvent Supplier

When you’re ready to discover the next generation of industrial cleaning solutions with Vertec BioSolvent’s bio-based products, you’ll see how our innovative formulations prioritize environmental sustainability and meet the demands of modern industries. As you work to become the best supplier , remember that we offer eco-friendly solvents that are effective cleaners. We think you’ll agree that Vertec BioSolvents redefines industrial cleanliness with effective bio-based solvents. Contact us for more information or to ask questions you might have.

How to Choose the Right Solvent Supplier

Wed, 23 Aug 2023 17:10:43 GMT

Specialty chemicals, including solvents, play a crucial role in various industries such as agriculture, coatings and paintings, and cleaning products. As these industries continue to seek sustainable and eco-friendly alternatives, the demand for specialty solvent suppliers has grown significantly.

This blog aims to shed light on the significance of solvent suppliers in these industries and provide manufacturers and corporate decision-makers with essential guidelines for choosing the right solvent supplier. At Vertec BioSolvents, we offer a bio-based alternative that aligns with sustainable practices, making us the preferred choice for your solvent procurement needs.

What Are Specialty Chemicals and Where Are They Used?

Specialty chemicals, like solvents, play a critical role in many different industries . They effectively dissolve, disperse, or extract other substances depending on the application. You could say specialty chemicals are the secret ingredient behind the production of top-notch, high-quality, and cutting-edge products . That’s why these unique substances are important in agriculture, coatings and paintings, cleaning products, and more.

Agriculture —In the agricultural industry, specialty solvents are employed in various formulations of pesticides, herbicides, insecticides, and fertilizers. They act as carriers, enabling the effective dispersion of active ingredients onto crops and ensuring optimal absorption. Solvents also play a role in formulating adjuvants that enhance the efficiency of agrochemicals by improving their adherence to plant surfaces and promoting better penetration.

Coatings and Paintings —In the coatings and paintings industry, specialty solvents serve as essential components in the formulation of paints, varnishes, lacquers, and other surface coatings. These solvents play a crucial role in controlling the viscosity of the coating, facilitating application, and ensuring uniform coverage. They also aid in the drying process by evaporating quickly, leaving behind a smooth and durable finish. Specialty solvents are utilized in both solvent-based and water-based coatings, catering to diverse application needs.

Cleaning Products —In the realm of cleaning products, solvents are integral to the formulation of various household and industrial cleaners. Solvents act as powerful degreasers, dissolving and removing stubborn oil, grease, and dirt from surfaces. They are used in products such as degreasers, spot removers, paint thinners, and solvent-based carpet cleaners. The ability of solvents to dissolve contaminants makes them effective components in removing stains and residues from various substrates.

Pharmaceuticals and Personal Care —Specialty solvents find applications in the pharmaceutical and personal care industries as well. In pharmaceuticals, solvents are used for drug formulation, extraction of active compounds, and as reaction media in synthesis processes. In personal care products like perfumes, deodorants, and lotions, solvents act as carriers for fragrances and other active ingredients, ensuring their even distribution and enhanced performance.

Industrial Applications —Beyond the mentioned industries, specialty solvents have a wide range of industrial applications. They are utilized in electronics manufacturing, adhesives, printing inks, automotive applications, and more. In electronic manufacturing, solvents are used for cleaning electronic components and removing solder flux residues. In adhesives, they aid in the application and bonding process. In printing inks, solvents enable the proper dispersion of pigments.

The unique properties of specialty solvents make them essential in many industrial processes, where they contribute to the quality, performance, and functionality of a diverse array of products. As industries continue to focus on sustainable practices, the demand for eco-friendly and bio-based solvents has grown, leading to the rise of suppliers like Vertec BioSolvents. With a commitment to providing bio-based alternatives, such suppliers offer environmentally friendly solutions without compromising on performance. It’s easy to see why these options are becoming a preferred choice for manufacturers and decision-makers seeking responsible solvent procurement .

How to Choose a Specialty Solvent Supplier

Choosing the right specialty chemicals supplier is crucial for a successful partnership. Here are the most critical factors to consider during the evaluation process.

Identify Your Area of Need

Understand your solvent requirements and the specific applications they will serve. Different industries have distinct solvent needs, and by identifying your area of need, you can narrow down potential suppliers who specialize in serving your sector.

Consider Their Experience

An experienced solvent supplier will have a better understanding of the complexities and nuances of the industry. Look for specialty chemical suppliers with a proven track record and years of expertise in offering solvent solutions to various clients.

Quality Assurance and Certifications

Ensure that the supplier you choose follows stringent quality control measures and holds all required and relevant certifications. Certifications like ISO standards demonstrate the supplier’s commitment to maintaining high-quality products and processes.

Range of Products and Services

When choosing a solvent supplier, you must make it a point to select one that offers a wide variety of products and services to meet your ever-changing needs. A supplier with an extensive number of offerings can provide customized solutions that perfectly match your requirements.

Competitive Pricing

Considering cost is always important. However, it should not be the sole basis for your decision. Ideally, you want the best solution for the best price . Remember to look for a supplier that offers competitive pricing without compromising on the quality of their solvents.

Timely Delivery

Timely delivery is crucial to the smooth operation of your manufacturing processes. Choose a solvent supplier with a reputation for punctuality and reliability in meeting deadlines.

Technical Support and Customer Service

A reliable supplier should offer excellent technical support and responsive customer service. This ensures that any issues or queries can be addressed promptly, preventing potential disruptions to your production.

Work With VertecBio as Your Solvent Supplier

At Vertec BioSolvents, we stand out as a premier bio-based solvent supplier dedicated to sustainability and innovation. Here’s why working with us will benefit your company:

Sustainable Solution —Our bio-based solvents are derived from renewable resources, reducing the environmental impact and promoting sustainability in your manufacturing processes. By choosing our solvents, you demonstrate your commitment to eco-friendly practices.

Superior Performance —Vertec BioSolvents offers solvents that match or exceed the performance of traditional petroleum-based solvents. You can achieve excellent results in your products while reducing your carbon footprint.

Tailored Solutions —Our experienced team acknowledges the distinct requirements of various industries. As we work closely alongside our clients, together, we create personalized solvent solutions to optimize product performance and increase efficiency.

Stringent Quality Control —Quality is the foundation of everything we do. Our bio-based solvents undergo thorough testing and strictly adhere to industry standards, guaranteeing dependable and consistent product performance.

Customer-Centric Approach —At Vertec, we prioritize customer satisfaction. Our technical experts are readily available to provide support and guidance, ensuring a smooth and seamless partnership with us.

Selecting the right solvent supplier is vital to the success of your manufacturing processes, especially as industries increasingly embrace sustainable practices. When deciding, it’s important to think about several factors, like the company’s experience, quality assurance procedures, the range of products, competitive pricing, and customer service. If you’re looking for a company that ticks all these boxes, Vertec BioSolvents has got you covered. Our bio-based solvents not only meet your performance expectations but also align with your commitment to sustainability. Partner with us and experience the difference in solvent procurement for your business. Contact Vertec to find the best effective and eco-friendly option for you and your business.

The Benefits of an Isopropyl Alcohol Substitute

Fri, 18 Aug 2023 13:58:46 GMT

Isopropyl Alcohol (IPA) is a popular solvent in many industries because of its versatility. It’s known for dissolving various substances and has incredible effectiveness as a cleaning agent. However, bio-based solvents have recently advanced and offer several advantages over IPA. Explore these viable alternatives that could be a game-changer in your industry.

Why Replace Isopropanol (IPA) in Your Products

The possible dangers of using IPA in your products cannot be ignored. As a volatile organic compound (VOC), IPA may lead to air pollution and be detrimental to people’s health. Extended contact with IPA vapors can irritate the respiratory system, skin, and eyes, leading to discomfort and threatening long-term health consequences. That’s why a replacement is worth considering.

Industries should also be aware that IPA is a significant fire hazard in manufacturing facilities and storage areas due to its highly flammable nature. The potential for accidents and associated damages cannot be ignored, which emphasizes the need for safer alternative options to be explored.

Benefits of an Isopropyl Alcohol Substitute

By opting for an Isopropyl Alcohol substitute, such as Vertec BioSolvents’ Solution, manufacturers can reap several advantages. These benefits include:

1. Health and Safety

Using bio-based substitutes presents a remarkable upgrade in terms of health and safety compared to IPA. These substitutes are generally non-poisonous, non-combustible, and have reduced VOC emissions, ultimately reducing the potential hazard of exposure to hazardous chemicals. Thus, bio-based alternatives are a desirable option for ensuring employee protection and maintaining a healthy workplace environment.

2. Environmental Friendliness

Unlike IPA, which is derived from petroleum sources, bio-based substitutes are often produced from renewable resources. They have a reduced carbon footprint , contribute less to greenhouse gas emissions , and help mitigate the impact on the environment. By utilizing an IPA substitute, companies can align their practices with sustainability goals and showcase their commitment to environmental stewardship.

3. Regulatory Compliance

With increasing focus on environmental regulations and stricter guidelines, many industries face the challenge of ensuring compliance. IPA substitutes, particularly those that are bio-based, often have improved regulatory profiles. They are formulated to meet or exceed environmental standards, facilitating easier adherence to regulations and reducing potential legal risks.

4. Performance and Versatility

An IPA substitute can provide comparable or even enhanced performance compared to traditional IPA. They are designed to dissolve various substances effectively and are suitable for a wide range of applications. Whether it’s cleaning, degreasing, surface preparation, or formulation, bio-based alternatives offer versatility without compromising on efficiency.

Industries That Use IPA

Isopropyl Alcohol finds extensive use across multiple industries because of its versatile properties. Some of the key sectors relying on IPA include:

1. Electronics Manufacturing

IPA is commonly used for cleaning and degreasing electronic components and circuit boards. Its fast-evaporating nature makes it ideal for removing contaminants and ensuring proper functionality.

2. Pharmaceuticals and Healthcare

In the pharmaceutical industry, IPA is used for sterilization, cleaning equipment, and preparing surfaces for aseptic procedures. It is also an ingredient in various healthcare products, such as hand sanitizers and disinfectants.

3. Printing and Ink Manufacturing

IPA is an integral part of printing processes, serving as a solvent for inks and coatings. Its ability to dissolve pigments and oils makes it crucial for achieving optimal printing results.

4. Cosmetics and Personal Care

In the cosmetics industry, IPA is utilized in the formulation of perfumes, lotions, and other personal care products. Its solvent properties aid in dissolving and blending various ingredients.

5. Automotive and Aerospace

IPA is used for cleaning and degreasing surfaces in automotive and aerospace manufacturing, ensuring the highest standards of cleanliness and removing oils, greases, and contaminants from parts and components.

6. Medical Devices

In healthcare settings, IPA plays a crucial role in maintaining a sterile environment by effectively killing microorganisms. It is a widely used compound for cleaning and disinfecting medical devices due to its proven effectiveness in preventing infection.

7. Laboratories and Research Facilities

The use of IPA in laboratories and research facilities is critical for maintaining cleanliness and preventing cross-contamination. It is a versatile and efficient solution for cleaning and sterilizing equipment, glassware, and surfaces thanks to its ability to dissolve a wide range of substances and its rapid evaporation.

Finding a Suitable Substitute for Isopropyl Alcohol

When searching for a suitable substitute for Isopropyl Alcohol, Vertec BioSolvents’ Solution emerges as a promising alternative. Vertec BioSolvents specializes in the development of high-performance bio-based solvents that can effectively replace traditional chemical solvents like IPA. Their Solution offers the following advantages:

1. Renewable and Sustainable

Vertec BioSolvents’ Solution is derived from renewable resources, such as plant-based sources. It is produced using environmentally friendly processes, minimizing the reliance on fossil fuels and reducing the carbon footprint. By utilizing this bio-based substitute, companies can contribute to a more sustainable future.

2. Low Toxicity and Reduced VOCs

The Solution offered by Vertec BioSolvents has low toxicity levels, ensuring a safer working environment for employees. It emits significantly lower levels of volatile organic compounds (VOCs) compared to IPA, leading to improved air quality and reduced health risks.

3. Compatibility and Performance

Vertec BioSolvents’ Solution is designed to be compatible with a wide range of materials and applications. It exhibits excellent solvency power, effectively dissolving various substances and providing efficient cleaning and degreasing capabilities. Manufacturers can expect comparable or superior performance when compared to IPA.

4. Regulatory Compliance

The Solution is formulated to meet stringent regulatory requirements . It complies with environmental regulations and guidelines, allowing companies to navigate regulatory challenges more easily while maintaining compliance.

A Few Final Thoughts

The benefits of replacing Isopropyl Alcohol (IPA) in various industries are significant. The emergence of bio-based substitutes, such as Vertec BioSolvents’ Solution, provides manufacturers and corporations with safer, more sustainable, and high-performing alternatives to IPA.

With improved health and safety profiles, reduced environmental impact, regulatory compliance, and compatibility with diverse applications, these substitutes offer a compelling choice for businesses looking to enhance their products and processes while aligning with their sustainability goals. By embracing an Isopropyl Alcohol substitute like Vertec BioSolvents’ Solution, companies can drive innovation, reduce risks, and contribute to a greener future. Contact Vertec for more information.

What is the Difference Between Mineral Sprits vs Acetone

Thu, 20 Jul 2023 19:00:24 GMT

From oil paints to fingernail polish, mineral spirits and acetone are among some of the most commonly used solvents. Ideal for a large variety of uses, both mineral spirits and acetone offer plenty of benefits, however, there are key distinguishable differences between the two.

In this article, we’ll explore the differences and similarities between mineral spirits vs acetone, their uses, and introduce you to some smart, eco-friendly alternatives.

What are Mineral Spirits?

Mineral spirits, also known as white spirits, are a type of petroleum-derived solvent. They are highly effective in thinning oil-based paints and varnishes and are widely used for cleaning brushes, tools, and equipment after use. The power of mineral spirits lies in their ability to dissolve a wide range of substances, thanks to their unique composition of hydrocarbon compounds. This versatility makes them a go-to solvent in various industrial and household applications.

Common Uses of Mineral Spiritis

Mineral spirits are valued for their effectiveness and versatility in many applications:

Paint Thinning and Application: Mineral spirits are commonly used to thin oil-based paints, varnishes, and stains, improving their flow and reducing the likelihood of cracking. This makes them indispensable in painting projects where a smooth finish is desired.

Tool and Equipment Cleaning: After painting or varnishing, mineral spirits are often used to clean brushes, rollers, and other tools, preventing paint from hardening and extending the life of the equipment.

Degreasing Surfaces: Mineral spirits excel at degreasing metal surfaces, making them ideal for preparing surfaces before painting or applying other coatings.

Industrial Uses: In manufacturing, mineral spirits are employed for their ability to dissolve a variety of substances without leaving a residue, making them suitable for various production processes.

Other Applications: Mineral spirits can also be used as a fuel additive in some cases or as a base solvent in dry cleaning fluids.

Furthermore, since mineral spirits are made from petroleum they are a nonrenewable resource. Not to mention, the methods used to extract the petroleum used to make mineral spirits can cause damaging effects to both our earth and the ozone layer.

While mineral spirits have proven themselves to be an indispensable asset for tackling a range of jobs at home or in the workshop, choosing to use a biobased solvent, like VertecBio™ ELpine , eliminates the hazards associated with petrochemicals. VertecBio™ carries an extensive list of quality products that are safe, non-toxic, non-carcinogenic, and most importantly highly effective.

What is Acetone?

Acetone, also known as propanone, is a colorless, volatile liquid widely recognized for its strong solvent properties. It is commonly associated with household uses like nail polish remover, but its applications extend far beyond that. Acetone is highly effective at dissolving paints, adhesives, resins, and various other substances, leaving no residue behind. This makes it an essential solvent in many industrial and manufacturing processes.

Common Uses of Acetone

Acetone's versatility and effectiveness make it a preferred solvent in a range of applications:

Paint and Coating Removal: Acetone is frequently used to remove paint, varnish, and other coatings from surfaces, making it a go-to choice for both household and industrial cleaning tasks.

Adhesive and Resin Dissolution: In manufacturing, acetone is used to dissolve adhesives and resins, ensuring that these substances can be easily removed or reworked as needed.

Degreasing and Surface Preparation: Acetone’s volatility and quick evaporation rate make it ideal for degreasing and drying surfaces, such as metals and engine parts, without leaving any oily residue behind.

Cleaning Applications: Acetone is often used to clean tools and equipment in various industries, particularly where a strong solvent is needed to remove stubborn residues.

However, while acetone is highly effective, it must be used with caution. It is known to dissolve certain plastics, so care should be taken when applying it to plastic surfaces. Additionally, acetone is highly flammable and emits hazardous fumes, making it crucial to use proper protective equipment and work in well-ventilated areas.

With this in mind, there are options to replace acetone with an eco-friendly replacement . Vertec BioSolvent’s ELSOL AR is designed to do work as a replacement for acetone, and it bolsters a lower environmental impact.

What are the Similarities and Differences Between Mineral Spirits and Acetone?

In various industries, mineral spirits and acetone are preferred solvents because of their range of applications. These two solvents work to dissolve stubborn materials like paints, adhesives, and resins while leaving no traces behind. However, keep in mind that there are differences that should be considered before choosing which one to use for a specific task.

Similarities

Even though they have different chemical components, mineral spirits, and acetone have a few things in common with each other.

Solvent Properties: Comparing mineral spirits vs acetone, they both possess strong solvent properties, making them effective at dissolving various substances.

Cleaning and Degreasing: They are commonly used for cleaning tools, equipment, and surfaces, as well as for degreasing purposes.

Volatility: Both solvents evaporate quickly, leaving minimal or no residue.

Versatility: Mineral spirits and acetone are used in industries such as manufacturing, automotive, painting, and construction.

Differences

While mineral spirits and acetone share a few similarities, they also have marked differences.

Chemical Composition: Mineral spirits are petroleum-based solvents, and acetone is an organic compound derived from the oxidation of isopropyl alcohol.

Odor: Mineral spirits have a mild odor, while acetone has a strong and distinct odor.

Flammability: Acetone is highly flammable. Mineral spirits have a higher flash point and are considered less flammable.

Paint Thinning: Mineral spirits are commonly used for thinning oil-based paints and varnishes, while acetone is mainly used for thinning lacquers and some types of paints.

Compatibility: Acetone can dissolve certain plastics, while mineral spirits are generally safe to use on most surfaces and materials.

Drying Time: Acetone evaporates faster than mineral spirits, making it a better choice for applications requiring fast drying.

What are Lacquer Thinners?

Beyond acetone and mineral spirits, is lacquer thinner. Lacquer thinner is a crucial component in the finishing industry, specially crafted to dilute lacquers used for enhancing and safeguarding wood, metal, and other surfaces.

Lacquer thinners are usually used to adjust the viscosity of lacquer coatings. This modification simplifies the application process, ensuring the creation of an even finish. Numerous factors determine the ideal thinning ratio, including application method, environmental factors, and the lacquer product used.

Lacquer thinners also have purposes beyond just thinning lacquer. They also serve as an essential cleaning agent for lacquer-based coatings and tools. When left untreated, lacquer residues can accumulate on brushes, spray equipment, and other application tools. This can cause some major issues in their performance. With the effective dissolving and removal properties of lacquer thinners, these residues can be easily cleaned. Thinners provide proper maintenance to equipment and ensure consistent performance.

Lacquer thinners are usually made of a combination of solvents, like mineral spirits, acetone, and other chemicals. The formulation is tailored to meet the specific requirements of lacquer applications. Mineral spirits provide good solvency for oil-based lacquers, while acetone helps in the quick drying of lacquer coatings.

It is important to note that lacquer thinners are specifically intended for lacquer-based products and may not be suitable for other types of finishes. Different types of coatings, like oil-based paints or varnishes, may need different solvents for thinning and cleaning purposes. You must choose the right solvent based on the specific product and its compatibility.

When using lacquer thinners, you also need to follow safety precautions because they are typically highly flammable. Adequate ventilation should be ensured during the application, and proper protective equipment, such as gloves and goggles, should be used.

Unsure of Which is Best For You? Contact Vertec BioSolvents!

Vertec BioSolvents provides eco-friendly options for those looking to substitute mineral spirits or acetone . Their bio-based solvents, extracted from renewable sources, deliver top-notch cleaning and degreasing properties while preserving superior performance. Consider Vertec BioSolvents' bio-based alternatives to mineral spirits and acetone for an environmentally conscious and sustainable solution. Contact us for more information or to discuss your options.

VertecBio™ ELpine

VertecBio™ ELpine solvent is excellent for cleaning tank trucks, ISO tanks, semi-bulk bins, reactors and storage tanks. It is a safe, non-toxic and non-carcinogenic cleaner that is also highly effective.

VertecBio™ ELSOL® AR

VertecBio™ ELSOL® AR is a powerful, bio-based replacement for harmful industrial acetone products. It has exceptional performance as a solvent blend for paint, coating, and ink formulations.

VertecBio™ ELSOL®

Environmental Benefits of Methyl Soyate in Products

Wed, 17 May 2023 14:08:31 GMT

When faced with tough cleaning challenges like removing asphalt, using diesel as a solvent can seem like a logical choice. However, the use of diesel comes with negative consequences for the environment. Not only does it release harmful emissions that contribute to air pollution, but it also creates waste asphalt sludge that requires proper disposal.

Fear not. A better, more eco-friendly solution is just as effective (if not more so): soy methyl ester . Derived from soybeans, this solvent is non-toxic and bio-degradable. Plus, it has similar cleaning properties to diesel, making it an ideal alternative.

This innovative solvent is quickly gaining popularity as a sustainable alternative to traditional petroleum-based solvents. In this blog post, we’ll dive into the environmental advantages of using methyl soyate in various products, explore its excellent solvent properties, and highlight its market applications. Plus, you’ll discover why choosing an eco-friendly solvent from Vertec BioSolvents is a smart choice for your business and the planet.

Environmental Benefits of Methyl Soyate

Soy Methyl Ester, or Methyl Soyate, is made from renewable resources like soybeans and has a low environmental impact. As a bio-based alternative to traditional solvents, methyl soyate solvents offers many advantages. Not only is it biodegradable and non-toxic, it also leaves no harmful impact on the environment. Soy Methyl Ester has a low VOC content , which means it releases fewer volatile organic compounds into the air, making it a safe and sustainable solution.

Methyl soyate is a renewable resource that can make a positive impact on our planet. It is 100% biodegradable and does not contain any compounds that contribute to global warming. It is also not listed on the state of California's Proposition 65 List, which identifies potential carcinogens, teratogens, and other harmful chemicals. These properties make Soy Methyl Ester a safe and environmentally friendly solvent that can be used in a variety of applications.

It has become clear that the general public is looking for products that contain cleaner and safer alternatives that are also high-performing.

Methyl Soyate Solvent Properties

With a mild scent and amazing solvency power, Soy Methyl Ester is the ideal solvent for various applications, including coatings, adhesives, and cleaning products.

What’s more, methyl soyate boasts a high flash point, giving it an added safety edge in handling and storage. This versatile solvent can dissolve a wide range of materials, such as oils, grease, and resins, making it a must-have for businesses looking for a safe and effective cleaning agent .

It’s also 96.5% bio-based and made from entirely renewable sources. With a low vapor pressure and high loading capacity, you can’t go wrong with methyl solate solvents for cleaning graffiti , removing paint, or degreasing heavy lubes and oils.

Market Applications

Methyl Soyate, as an organic compound, can be used in a multitude of industries, such as manufacturing, agriculture, petroleum, inks, paints, and coatings. Its compatibility with petroleum-based solvents makes Soy Methyl Ester a suitable alternative, making the possibilities endless.

Methyl soyate can be used in the agriculture industry to carry pesticides or herbicides. It is a safe and environmentally friendly alternative to traditional petroleum-based solvents. Soy Methyl Ester is also EPA-approved as a 4A Inert Solvent, which means that it is not expected to be harmful to human health or the environment.

Soy Methyl Ester can also be employed to clean equipment or remove asphalt , while in the inks and coatings industry, it can be the go-to cleaning agent or solvent. The best eco-friendly options should be at least as good or better than their petroleum-based counterparts.

Furthermore, Methyl soyate presents an effective solution that is free of Hazardous Air Pollutants for industrial cleaning purposes. This not only benefits the individuals using it but also contributes to the well-being of the environment.

In another scenario, if a bussiness happens to provide supplies to or own a commercial painting business, everything must be cleaned out regularly . Usually, that cleaner would be petroleum-based, however, those cleaners are not quite as friendly to the planet. Soy Methyl Ester cleaning options are equally powerful and easy to use . But the best part is that it doesn’t change much in the client’s process or have a significant impact on their budget.

In fact, Vertec BioSolvents has multiple patents in solvent blends and applications across industries including:

Agriculture
Inks
Paints and coatings
Petroleum
Industrial manufacturing

With a focus on sustainability and the drive to create bio-based solvents that outperform petro-based counterparts, Vertec Biosolvents has an option that will meet and exceed client expectations.

Benefits of Buying an Eco-Friendly Solvent from Vertec BioSolvents

Vertec BioSolvents creates and sells environmentally friendly alternatives to traditional petroleum-based solvent, such as the VertecBio Gold® #4EG Methyl Soyate Solvent . Our range of bio-based solvents, including the highly effective methyl soyate, are made from renewable resources with a low environmental impact. Opting for our nature-friendly solvents not only helps reduce your company’s carbon footprint , but also contributes to a healthier, more sustainable world.

Using methyl soyate in products can have a significant impact on the environment by reducing the amount of hazardous waste and VOCs released into the atmosphere. By choosing to buy eco-friendly solvents from Vertec BioSolvents, you can help create a cleaner, healthier world while still maintaining high-quality products. All Vertec products do not contain ozone-depleting chemicals or hazardous air pollutants.

With a reduced carbon footprint, biosolvents work to balance CO2 every time they’re used to have an even greater positive impact on reducing greenhouse gasses.

VertecBio Gold ® #4EG is a technical grade methyl soyate solvent, and is ideal for formulating hand cleaners, mastic/adhesive removers, asphalt release agents, and industrial cleaners.

Vertec BioSolvents Inc. provides environmentally friendly, high-performing bio-based solvent alternatives for both industrial and agricultural markets . We place a very heavy emphasis on using technology to achieve sustainability, so that we can create bio-based solvents that are capable of outperforming their petrochemical counterparts.

Proudly made in the USA, Vertec BioSolvents places a heavy emphasis on technology and sustainability. We produce superior performance through sustainable technologies. Visit our website or call 630-960-0600 for more information, or to request a sample of VertecBio Gold® #4EG.

Common Methyl Ethyl Ketone (MEK) Uses

Thu, 20 Apr 2023 16:36:32 GMT

What is MEK?

Methyl Ethyl Ketone, commonly known as MEK and 2-Butanone, is a colorless, volatile liquid with a sweet odor. It is a ketone, which means it has a carbonyl group in its molecular structure. MEK is soluble in water and many other organic solvents and is widely used in various industries due to its chemical properties.

MEK is primarily used as a solvent and in manufacturing plastics, synthetic rubber, paraffin wax, paints, inks, glues, and other chemical products. MEK is considered by some to be dangerous or hazardous. It's been known to cause irritation to the skin, eyes, throat, and nose, as well as its flammable qualities.

Vertec BioSolvents produces a Methyl Ethyl Ketone alternative for industrial use due to its unique properties and wide range of applications across various industries. Our MEK alternative is a highly effective solvent with a fast evaporation rate, making it ideal for cleaning agents, adhesives, and coatings.

Why Should I Use a MEK Alternative?

Although MEK has many industrial applications, it is also a hazardous substance that can cause health problems such as headaches, dizziness, and skin irritation. It is also flammable and explosive, which poses a risk to workers and the environment. Additionally, MEK is derived from petroleum, which makes it non-renewable and contributes to the carbon footprint. Therefore, looking for safer and eco-friendly alternatives to MEK is essential.

While MEK is not under a national ban, it is banned in Southern California, as well as in some states that have strict VOC laws. Bearing this in mind, MEK alternatives make it possible to market and sell to consumers across the nation or even internationally.

What is Methyl Ethyl Ketone Used for?

MEK has numerous industrial applications due to its solvent properties and low boiling point. Here are some of the most common uses for MEK:

Cleaning Agent

MEK is commonly used as a solvent to dissolve and remove various substances such as oils, greases, and waxes. It also cleans and degreases metal surfaces before painting or coating.

Petrochemical Plastics

MEK produces various petrochemical-based plastics such as PVC, acrylics, and polystyrene. It acts as a solvent, which helps dissolve the polymer and facilitate production.

Curing Agents

MEK is used as a curing agent in producing coatings, adhesives, and sealants. It helps to cross-link the molecules and increase the strength and durability of the final product. Companies producing curing agents require high quality MEK solvents to enhance the quality of their products as well.

Paints, Dyes, and Glue

MEK is commonly used as a solvent in producing paints, dyes, and glue. It helps to dissolve the pigments and resins, which makes the products easier to apply and improves their quality.

Top Uses for MEK

Industrial cleaning - MEK is a highly effective cleaning agent used to clean machinery, equipment, and tools in various industries, including automotive, aerospace, and manufacturing. It is also used to clean printing presses and electronic components.

Adhesive production - MEK is used as a solvent in producing adhesives and sealants used in the construction, automotive, and packaging industries. It helps to improve the adhesion and bonding strength of the products.

Paint and coatings - MEK is used as a solvent in producing paints and coatings for various automotive, marine, and industrial applications. It helps to dissolve the resins and pigments and improves the viscosity and flow properties of the products.

PVC production - MEK is used in the production of PVC, which is used in various applications, including construction, automotive, and medical devices. It acts as a solvent that helps dissolve the PVC resin and other additives and facilitates production.

Vertec BioSolvents MEK alternative products and Environmental sustainability

One major environmental concern with MEK is its high volatility. MEK can easily evaporate into the air and contribute to the formation of smog and ground-level ozone, which can harm human health and damage the environment. In addition, MEK can also contaminate soil and water if it is not properly handled or disposed of, leading to harmful effects on aquatic life and other organisms.

This is where Vertec BioSolvents delivers on its environmental sustainability commitment with its bio-based replacement for volatile MEK products with VertecBio ™ ELSOL® KT R1 . There are no ozone-depleting chemicals (ODCs), environmentally hazardous ingredients, or hazardous air pollutants (HAPs) in the product line. Investing in research and development , Vertec BioSolvents possess exceptional performance as an effective solvent for paint, coatings and ink formulations.

VertecBio™ ELSOL® KTR1, a bio-based MEK Alternative (methyl ethyl ketone) features greater cleaning power, reduced solvent usage for improvements, and a higher return on investment.

Stronger cleaning power, reduced solvent usage for improvements, and savings across the board - these are just a few of the benefits of VertecBio™ ELSOL® KTR1, a bio-based MEK Alternative (methyl ethyl ketone).

What Are VOCs in Paint & Are They Dangerous?

Fri, 31 Mar 2023 16:38:46 GMT

Home repairs, like painting, are a fundamental piece of home maintenance strategies that keep houses new and appealing. However, despite your walls being beautifully painted, some of the compounds in the types of paint used in paint products, and house painting can be very harmful to your health. To help solve this problem, Vertec has available a series of alternative BioSolvents in the making of paint and cleaning supplies.

The manufacturing and production process for things like paints and home detergents involves using various solvents, including mineral spirits, volatile organic compounds (VOCs), and other chlorinated solvents like trichloroethane, trichloroethylene, benzene, and xylenes. Volatile organic compounds (VOCs) are chemicals that evaporate quickly into the atmosphere just at room temperature. These compounds are primarily found in many paints, including both latex and oil-based paints. VOCs are also responsible for freshly painted rooms' unpleasant, acrid scents.

It's also important to note that the persistent use of latex and oil-based paints can cause harm to both nature and human lives.

The good news is that alternative products, such as those produced by Vertec BioSolvents, can help produce paints and cleaners that are much safer for both people and the planet.

What are Volatile Organic Compounds (VOCs) in Paint?

Volatile Organic Compounds (VOCs) are chemical components found in products like paints and home cleaning agents. VOCs are used in paint and often act as its drying agent. As the paint leaves its storage container and is applied to a surface, it releases VOCs, which is the act of the paint drying. These compounds are emitted in gaseous forms and can be hazardous to the immediate surrounding environment. VOCs and their use in painting and other household products are increasingly becoming a major concern to both companies and consumers .

VOCs can also have a serious impact on the environment. VOCs, especially when combined with compounds like methane or carbon dioxide, can create toxic mixtures. These mixtures can create ground-level smog that can trigger plant diseases, impede seed production, and obstruct fertilization. As the planet warms, due to the climate crisis, things like heatwaves or simply warmer climates can worsen photochemical reactions, resulting in escalated production of low-level ozone.

How Do VOCs Collect Inside Homes?

VOCs can collect inside homes in a few different ways. A major way VOCs collect in homes is through paints and household cleaning agents. When you paint your home or use cleaning supplies, the VOCs are released into the air and can accumulate over time.

Another way that VOCs can enter your home is through outdoor air pollution. Urban dwellers, for example, face constant outdoor air pollution. Cities’ high levels of VOC compounds, found in things like car exhaust gasses and industrial air pollution, can exacerbate their risk rates.

Are VOCs in Other Products?

VOCs are found in many other household products besides paint. Thousands of products contain VOCs, including:

Aerosol sprays
Stored fuels and automotive products
Wood preservatives
Dry-clean clothing
Moth repellents and air fresheners
Hobby supplies

Common domestic products, for example, exhibit low levels of VOCs. They include air fresheners, personal care products like hairspray and perfume, and cleaning products.

Cleaning Products

Cleaning products are a common source of VOCs in the home.

Many common household cleaners contain chemicals like ammonia and bleach that can emit VOCs. Whenever these cleaning products are used at home, the VOCs are released into the air and can contribute to indoor air pollution. Additional cleaning products that contain VOCs include carpet cleaners, oven cleaners, and disinfectants. Air fresheners and fragrances can also contain VOCs.

Other VOC sources in a home environment include materials like fire-retardant insulation and upholstery.

What are the Effects of VOCs in Paint on factory Health?

VOCs are potentially very poisonous compounds, their effects may be temporary and short-term or permanent and detrimental. VOCs on your health may vary from mild to severe, often depending on the number of compounds you are exposed to and the duration of exposure. Exposure for a shorter period to heavy amounts of VOCs may lead to nose, eye, and throat irritation, mild headaches, nausea, and dizziness.

Exposure to VOCs, even in smaller amounts, over a long period of time could result in symptoms like:

Prolonged eye, nose, and throat irritation
Chronic headaches as well as loss of coordination and chronic nausea
Liver, kidney and central nervous system damage
Some types of cancer. The development of cancer is attributed to a combination of factors, but there is evidence suggesting that excessive exposure to certain VOCs can elevate the risk of developing cancer.

People with already existing health conditions are at higher risk, for example, those who suffer from allergies and asthmatic conditions. People with weak immunity and those diagnosed with conditions that fight the immune system are more susceptible to the long-term effects of exposure.

Vertec BioSolvents provides environmentally friendly alternatives to traditional petroleum-based solvents that are specifically designed for paint manufacturers and home cleaning detergent makers. This product is made with natural ingredients and is completely biodegradable, making it an eco-friendly alternative to traditional solvents.

For paint manufacturers, a product like VertecBio™ LVC offers a number of benefits. It is non-toxic and non-flammable, which makes it safer to use than many other industrial solvents on the market. It also has a pleasant smell, which means that it won't leave any harsh or unpleasant odors behind after use.

How to Reduce Exposure to VOCs

Proper ventilation is also essential in reducing VOC exposure. Open windows and use exhaust fans when using products that contain VOCs, such as paints, cleaners, and solvents. Use air cleaners that contain activated carbon filters to remove VOCs from the air.

One of the most effective ways is to choose products with low VOC content. The implementation of substitutes to traditional petroleum-based solvents, like those that go into the production of products containing VOCs, made by Vertec Biosolvents can help.

All our solvent-alternative products contain no environmentally hazardous ingredients, ozone-depleting chemicals (ODCs), or hazardous air pollutants (HAPs):

VertecBio™ LVC Solv #1 is a low VOC high performance custom blend has excellent solvency for adhesives, paints, coatings and inks. It provides excellent flow characteristics and avoids cost for fuel-fired thermal oxidizer unit thus reduce total emissions.

VertecBio™ LVC Solv #2 is a custom low VOC high performance blend with excellent flow characteristics. It also has excellent solvency for adhesives, paints, coatings and inks as well as formulating low VOC products.

This eco-friendly low VOC high performance custom blend is exceptional for formulating low VOC products while providing excellent solvency for adhesives, paints, coatings and inks.

VertecBio™ LVC-F150 is a low VOC replacement blend ideal for coating formulations. It is a high performance, versatile solvent blend for formulations and has excellent solvency for paint, coating and ink formulations.

Proudly made in the USA, Vertec BioSolvents places a heavy emphasis on technology and sustainability. We produce superior performance through sustainable technologies. Contact us or call 630-960-0600 for more information, or to request a sample of VertecBio™LVC.

The Difference Between Water Based Cleaners and Solvent Based Cleaners

Wed, 01 Feb 2023 21:37:05 GMT

The cost of consumer goods and industrial equipment is skyrocketing, and the best way to protect an investment is to keep it clean. Cleaning a product makes it look better, of course, but proper cleaning can also keep equipment running smoothly. To protect their investment, consumers and businesses are buying more cleaning products than ever before, and this is creating a demand for better cleansers. Manufacturers are stepping up to the challenge by introducing the most powerful water-based and solvent based cleansers available.

But what are the differences between a water-based and a solvent based cleaner?

The most obvious difference is that one has water as its main ingredient and the other has oil or petroleum distillates. The other differences are more subtle, but just as important.

Both types of cleaners have different physical and chemical properties that make them suitable for different applications, for example, and both have their advantages and drawbacks. Understanding the differences between a water based and a solvent based cleaner can help consumers choose the right cleaning product for every application.

What is a Water-Based Cleaner?

As their name suggests, water-based cleaners use water as the primary solvent. They also contain detergents, pH modifiers, builders, chelating agents, or other compounds with stronger cleaning power. Adding these extra ingredients enhances the products’ cleaning properties and makes them suitable for a larger variety of applications.

Most water-based cleaners also use acidic or alkaline ingredients.

Acidic compounds

Scientists use pH as a measure of a compound’s acidity. pH levels range from 0 to 14. Water is neutral with a pH of 7; compounds with a pH less than 7 are acidic, while those with a pH greater than 7 are alkaline.

Acidic compounds typically include citric acid and/or acetic acid. Citric acid is a mild organic acid found in lemon juice. Vinegar is about 4 to 6 percent acetic acid in water. In fact, acetic acid gives vinegar its characteristic color and its cleansing power. Acetic acid helps break down the structure of some stubborn oils, dirt, stains, films, and bacteria.

Ammonia and bleach are alkaline compounds, which are good for cleaning dirt stains, oils, greases, and other organics.

What is a Solvent Based Cleaner?

Solvent cleaners break down oils into smaller particles or dilute substances, and carry them into the solution for easy removal.

Because of their superior cleaning abilities and versatility, solvent cleaners are popular for industrial cleaning . Available in a range of potency from mild to strong, solvent cleaners remove thick oil, dirt, solder flux, and grease.

Oxygenated, hydrocarbon, and halogenated solvents

The most common solvent cleaners include oxygenated, hydrocarbon, and halogenated cleaning solvents.

Oxygenated solvents have a chemical structure that contains carbon atoms, hydrogen atoms and oxygen atoms. These solvents have an exceptionally high rate of purity, largely due to the refinement process that occurs in the last stages of production. Alcohols, glycol ethers, and ketones are types of oxygenated solvents.

Hydrocarbon solvents can easily penetrate small, hard to reach places to remove dirt and grease. These solvents do not use water, which means water won’t become trapped inside machines, where it can cause rust.

Halogenated solvents contain a halogen, such as chlorine, bromine or iodine. These cleaning solvents are useful for removing flux from circuit boards and for degreasing small metal parts.

The Difference between Water Based Cleaners & Solvent Based Cleaners

Flammability

Water-based solvents are non-flammable. While many manufacturers formulate their solvent-based cleaners to minimize or eliminate flammability, some solvent-based cleaners are still flammable.

Surface Tension

Surface tension causes a layer of liquid to behave like an elastic sheet or skin; it allows objects with a higher density to float on the surface without becoming submerged. Unfortunately, high surface tension can also prevent the cleanser from reaching the surface of the object being cleaned - and from reaching the dirt and grime on that surface.

Water-based cleaners often have a higher surface tension than do solvent based cleaners, so they bead up and float above the grime. Solvent cleaners have less surface tension than do their water-based counterparts, so solvent cleaners have a better ability to wet and penetrate the surface.

Evaporation Rate

Evaporation changes liquids into a gas. Cleansers evaporate at different rates, depending on how much water they contain: solvent-based cleansers evaporate faster than do water-based products, although manufacturers often add chemicals to their solvent-based cleansers to slow down the evaporation rate.

Cleansers with slower evaporation rates allow more time for cleansing, but require rinsing after application to remove the grime. Cleansers with faster evaporation rates allow less time for cleansing, but do not necessarily require rinsing.

Some solvent-based cleansers volatile organic compounds (VOCs) readily evaporate at room temperature. In a gaseous state, VOCs can cause harm to the environment and to health. To reduce potential harm, consumers and companies should use these cleansers in a well-ventilated area.

Temperatures

Water-based cleansers are most effective at room temperature, although some work at temperatures as warm as 80 degrees C. Some solvent-based cleaners can work well across a much wider range of temperatures, from below freezing to more than 200 degrees C.

Which Type of Cleaning Solvent Should You Purchase?

Both water- and solvent-based cleansers have the potential to perform well to remove natural oils, wax or other types of grime from surfaces, although their ability to clean depends largely on three factors:

The type of dirt, oil or grime being removed from the surface – cleaning agent that works well on removing soil may be ineffective at removing machine grease, for example
The substate, or material being cleaned – a cleanser made for cleaning stainless steel may not work well on glass lenses
The process requirements and constraints – a cleaning solvent made for machine grease may not be appropriate for cleaning a liquid oxygen line

A cost-effective, yet high-powered cleaner, VertecBio™ Citrus solvent cleaner products provide a better alternative to d-limonene, xylene, and toluene solvents. This product works well on products work well on epoxy, polyurethane, resins, paints, coatings, and inks.

As a rule of thumb, water-based cleaners are the right choice for cleaning an item without damaging the paint or surface of the item, while solvent-based cleansers are better for cleaning jobs in which damage is not a concern. Water-based cleaners are appropriate for both interior and exterior car care, for example, while solvent based cleansers are often the better choice for industrial cleaning.

When flushing paint lines, or cleaning spray guns , paint booths, oily materials and adhesives, VertecBio™ Citrus is the clear choice. This cost-effective, high-powered cleaning solvent is the superior alternative to d-limonene, xylene, and toluene solvents. Contact Vertec Biosolvents for more information.

Eco Friendly Chemicals for Pressure Washing

Tue, 24 Jan 2023 20:51:40 GMT

At the December 2022 UN Biodiversity Conference (COP 15), which was held in Montreal, Canada, approximately 190 countries from around the world approved an agreement for a new set of goals to halt and reverse the severe impact of human actions on losses in nature. Attendees agreed to initiate worldwide efforts to protect 30% of the earth’s land and oceans by the year 2030, and also agreed to other measures to protect against biodiversity loss. This action means that most of the world’s governments have recognized the damage inflicted on natural species and habitats by human activities.

As attention continues to focus on actions, large and small, which can be taken to protect the biodiversity of our planet, one area to look at is pressure washing chemicals. Although pressure washing, in and of itself, is a great way to remove dirt, grime, paint and graffiti, it is not simply a matter of spraying water on a surface at a high degree of intensity. Usually there is some type of cleaning agent, chemical, or detergent involved. These can be harsh, and may cause environmental damage while performing their functions. Fortunately, there are eco-friendly pressure washing chemicals which perform the job just as well without raising environmental concerns.

Why Use Bio Based Pressure Washing Chemicals?

There are many situations where power washing is a great solution to improve the appearance of a commercial or residential building. A commercial building owner might wish to remove graffiti or old paint, or clean an asphalt parking lot, while a homeowner might want to eliminate mold, algae, or grime caused by weather conditions. While chemicals or solvents are effective at accomplishing the end goal, the water used in the process has to go somewhere. It usually ends up in the local water system, nearby waterways, the underground water table, or the surrounding land, where the harsh chemicals can cause severe harm to plants and wildlife. The Power Washers of North America (PWNA) confirms that eco friendly pressure washing chemicals, however, have many advantages over the chemical-based process, including:

Eco friendly alternatives eliminate the need for chemicals which have the potential to create environmental damage.
Efficiently cleans large areas in a short period of time.
Power washing is cheaper than repainting or replacing materials like bricks, concrete, asphalt, and siding.
Bio-based pressure washing chemicals preserve surrounding land, grass, plants, and gardens.
Pressure washing uses less water than other methods of removing dirt and paint.
It protects humans and animals from possible exposure to dangerous chemicals.
Leaves the surface looking clean and restored in a safe manner.

How To Use Eco Friendly Pressure Washing Chemicals

Many solvents used in pressure washing can be bleach or petroleum-based, which is an environmental concern for many reasons. Making the switch to eco friendly pressure washing chemicals is easy and beneficial for businesses and the planet. Some ways in which eco friendly alternatives can be used include:

Eco Friendly Pressure Washing for Asphalt: A pressure washer can be effective at removing dirt from asphalt, but the concerns here are in regard to runoff, and damage to the asphalt surface from the use of harsh chemicals. The asphalt itself is a petroleum-based product, and driveways or parking lots which have been stained by oil or petroleum can be especially tough to clean. While visible puddles can be soaked up, those which have sunk into the material require a different approach. Use an environmentally safe degreaser cleaner to address stains, and maintain the pressure washer at a low setting to avoid damaging the asphalt particles.
Eco Friendly Pressure Washing for Paint: Pressure washing can be used to remove loose paint from metal, wood, concrete, and exterior surfaces, but chemicals can damage the underlying materials. Use an eco-friendly solution that does not damage the surface or the surrounding areas.
Eco Friendly Pressure Washing for Graffiti Removal : When it comes to graffiti removal, the terms “environmentally friendly” and “high performing” do not need to be mutually exclusive. Vertec BioSolvents, for example, is working to revolutionize the power washing industry with every ethyl lactate, d-limonene , soy methyl ester or ethanol bio-based formulated product we develop.

Choose Vertec's Eco-Friendly Pressure Washing Chemicals

In keeping with local, national and global awareness for more eco-friendly alternatives, our line of Vertec Bio Gold products is ideal for power washing for the purpose of graffiti or paint removal. We help businesses be good corporate citizens and protectors of the environment, while still achieving their goals of presenting a clean and professional appearance. These products are also used as degreasers for cleaning parts. Our Gold line rinses with water, and combines a high level of cleaning power with low odor, low VOC's and high flash points:

VertecBio Gold® #1 : This is an ideal solvent for graffiti and paint removal. It has excellent solvent for paints, coatings, and inks, and can also be used to clean oily materials, adhesives, and inks. Made from renewable resources, it combines high cleaning power with a mild, pleasant odor. It has low vapor pressure and high loading capacity, and is 100% biodegradable to carbon dioxide and water. Best of all, there are no global warming compounds.
VertecBio Gold® #1EG : A patented formula, VertecBio Gold® #1EG contains the highest level of ethyl lactate. Ideal for paint strippers, graffiti removers, heavy asphalt cleaners and degreasers. Safe, non-toxic, and non-carcinogenic, this product rinses easily with water.

Vertec BioSolvents provides environmentally friendly, high-performing biosolvent alternatives to traditional petroleum-based solvents for a wide range of industrial and agricultural market uses. Our bio-based green solvents and solvent blends are derived from corn, soybeans, citrus and other renewable feedstocks. None of our products contain any environmentally hazardous ingredients - no Ozone Depleting Chemicals and no hazardous air pollutants (HAPs). Proudly made in the USA, Vertec BioSolvents produces superior performance through sustainable technologies. Visit our website or call 630-960-0600 for more information, to request a sample, or to learn more about eco-friendly chemicals for pressure washing.

The Dangers of Butyl Cellosolve & Better Alternatives

Tue, 10 Jan 2023 22:14:20 GMT

What is Butyl Cellosolve?

Butyl Cellosolve, also referred to as butyl glycol or ethylene glycol monobutyl ether (EGBE), is a chemical commonly found in household cleaning agents, including all-purpose cleaners, glass cleaners, and floor cleaners. It is a colorless liquid with a sweet odor, which can be misleading as it can cause significant negative health effects. Exposure to Butyl Cellosolve can lead to skin irritation and dryness, eye irritation, and respiratory issues such as coughing, wheezing, and shortness of breath. Prolonged exposure or high levels of exposure can result in more severe symptoms such as headaches, nausea, dizziness, and even liver and kidney damage. In some cases, exposure to Butyl Cellosolve has been linked to birth defects and reproductive issue. Originally celebrated for its active solvency and coupling properties, the industry has since recognized the dangers of Butyl Cellosolve usage; it has been listed as one of California’s Toxic Air Substances and is on the New Jersey Department of Health’s Hazardous Substance List.

Butyl Cellosolve Uses

Butyl Cellosolve is a highly versatile chemical that possesses a unique combination of properties that make it an essential ingredient in many household cleaning products. This colorless liquid is a powerful solvent that effectively dissolves dirt, grime, and stains, making it an effective cleaning agent in products such as all-purpose cleaners, glass cleaners, and floor cleaners. Its ability to penetrate surfaces and lift away tough stains is just one of the many properties that make Butyl Cellosolve a popular choice for cleaning agents. Butyl Cellosolve is a powerful ingredient in various cleaners such as:

Glass cleaners
Carpet cleaners
Laundry additives
Bathroom & Kitchen cleaners
Multi-purpose cleaners for institutional and janitorial purposes
General degreasers

It has also been used for:

Pesticide production
Various types of paints, primers, sealers, stains, and coatings across industries
And more

Unfortunately, its effectiveness as a cleaning product and solvent is not outweighed by the potential damage it causes to the environment and the living organisms within, including human life.

The Dangers of Butyl Cellosolve

In humans, Butyl Cellosolve has been shown to cause liver and kidney damage and should be handled as extremely dangerous. This substance also irritates mucous membranes, including those in the eyes, nose, and throat.

Studies conducted by the Agency for Toxic Substances & Disease Registry have indicated that Butyl Cellosolve causes the destruction of red blood cells in animals and humans alike, resulting in damage to organs such as the kidney, spleen, and liver. The harmful substance has also been shown to cause reproductive effects and birth defects in animals; fewer offspring, underdeveloped bones, changes in estrous cycles, and cleft palates were all recorded during the conducted testing.

A Butyl Cellosolve Alternative For Safer Solvent Usage

As the need for an effective alternative for Butyl Cellosolve has become increasingly apparent, VertecBio has risen to the challenge, developing ELSOL BCR . A bio-based solvent alternative to Butyl Cellosolve, this patented blend of bio-based solvent is 20-30% more efficient in viscosity reduction than Butyl Cellosolve and is both easy and inexpensive to distill/recycle.

VertecBio™ ELSOL® BCR is a bio-based Butyl Cellosolve replacement solvent that dries completely and leaves behind no residue. An extremely versatile product with excellent performance, this product is the perfect alternative to create safer cleaning agents.

With a better cleaning power and reduced solvent usage needs when compared to Butyl Cellosolve, ELSOL BCR also contains no environmentally hazardous ingredients, no Hazardous Air Pollutants (HAP’s), and is manufactured in the United States. Vertec BioSolvents is dedicated to providing environmentally friendly alternatives to traditional solvents. Placing an emphasis on technology and sustainability, our bio-based solvents are designed to outperform their unsustainable counterparts in nearly every application.

If you have questions regarding our Butyl Cellosolve alternative , or any of our other products , please fill out our online c ontact form and a representative will respond promptly with more information.

Ways Businesses Can Reduce Their Ecological Footprint

Mon, 05 Dec 2022 18:22:55 GMT

In November 2022, COP27 , the 27th Conference of the Parties to the United Nations Framework Convention on Climate Change was held in Egypt. Over 90 heads of state and some 35,000 representatives of 190 countries were in attendance. This conference focused on developing world-wide policies to recognize and address the impacts of climate change. One major accomplishment was an agreement to establish a fund which compensates vulnerable nations for “loss and damage” from climate-induced disasters.

Last year’s COP26 certified that the world is facing a critical decade in which greater action is essential. UN Secretary-General António Guterres emphasized that more needs to be done to reduce emissions, saying, “The world still needs a giant leap on climate ambition. We can and must win this battle for our lives.” Professor Emily Shuckburgh , a world-leading climate scientist and Director of Cambridge Zero, adds that, “The private sector too has a critically important role.” With global awareness of climate change at such heightened levels, this article seeks to answer the question of, “How can businesses reduce their carbon footprint?”

Why Reducing a Business’s Carbon Footprint Is Important

There are many advantages beyond the environmental impact of answering the question of, “How can businesses reduce their carbon footprint?” In some cases, change has been mandated. In other cases, activist shareholders are more vocal about their ESG (environmental, social, and governance) expectations for companies in which they invest.

The media is publishing information about ESG scores, making it more transparent to everyone about a business’s commitment to reducing its carbon footprint. This may ultimately impact other entities up and down the supply chain, as well as the end consumers’ decision about which companies’ products to use. Voluntarily making sound environmental decisions can also be part of a solid competitive public relations strategy.

How To Measure Your Carbon Footprint

Some large companies have made a big splash about their commitment to achieving net-zero targets. While smaller businesses might not be able to implement such major changes, every commitment to reducing the carbon footprint is a step in the right direction.

It is important to understand exactly what a carbon footprint is, and then learn how to measure it effectively, so that appropriate remediation efforts can be made. According to the University of Michigan’s Center for Sustainable Systems , “A carbon footprint is the total greenhouse gas (GHG) emissions caused directly and indirectly by an individual, organization, event or product. It is calculated by summing the emissions resulting from every stage of a product or service’s lifetime (material production, manufacturing, use, and end-of-life).”

A Corporate Carbon Footprint, or CCF, is the total amount of GHG emissions that are directly or indirectly caused by the company’s various activities. The CCF includes emissions across the entire value chain, such as transportation, logistics, sourcing and delivery, use of sold products, end-of-life disposal, and direct emissions from manufacturing activities. In most cases, the CCF will be calculated for a specific period, such as a calendar or fiscal year, so that progress can be measured towards reducing the carbon footprint. Steps included in measuring a CCF include:

Overall Assessment: Create a comprehensive picture of your entire business, from sourcing through end use. Specify where the various elements of your company are located, and assess any risk operations in each of those locations pose to your CCF reduction goals.
Monitor Energy Usage: Look at how much energy your business uses in terms of electricity, gas, and water. Study the criteria you have established concerning sustainability in these areas, and highlight areas where you may be able to achieve reductions.
Consider All Environmental Impacts: While a manufacturing entity with emissions might be able to reasonably assess its environmental impacts, every business affects the environment in some way. Agriculture may use herbicides, pesticides, and growth enhancers which can cause environmental damage. Coatings, paints, inks , and cleaning products with petroleum solvents may have Ozone Depleting Chemicals or hazardous air pollutants (HAPs). Look for every way in which your business is increasing its carbon footprint, so you can find ways to make improvements.
Transportation: Transportation is a big cause of carbon emissions. Look for ways to improve supply chain efficiencies in delivery and shipments, as well as business travel. During the course of the pandemic, many businesses found they were able to substantially reduce business-related travel, as well as commuting levels for employees.

How Bio-based Solvents Have Reduced Businesses’ Carbon Footprint

Some options to reduce the CCF might include:

Reduce overall waste
Control transportation
Maintain production equipment and machinery
Work with local vendors and suppliers
Commit to renewable energy resources
Increase recycling capabilities
Reduce overall energy consumption
Establish firm business travel guidelines
Engage employees in CCF reduction efforts
Stress reduction goals in dealings with suppliers and customers
Watch resource consumption
Eliminate harsh petroleum-based solvents

An easy way to reduce businesses’ carbon footprint is to switch to environmentally-friendly bio-based solvents, or green solvents. These modern alternatives, such as the complete line from Vertec, have a reduced carbon footprint. Whereas solvents that are petroleum-based can add "virgin carbon" to the environment, our biosolvent carbon comes through the process of photosynthesis, where CO2 is captured from the atmosphere by a plant. This balances the CO2 released when a biosolvent is used in your formulation or cleaning application. Replacing petroleum-based solvents with Vertec BioSolvents can have a positive impact on reducing greenhouse gases, and will definitely help in reducing your ecological footprint.

At Vertec BioSolvents , we provide a range of environmentally friendly, high-performing biosolvent alternatives to traditional petroleum-based solvents for industrial and agricultural markets. Our bio-based green solvents and solvent blends are derived from corn, soybeans, citrus and other renewable feedstocks. None of our products contain any environmentally hazardous ingredients - no Ozone Depleting Chemicals and no hazardous air pollutants (HAPs). Proudly made in the USA, Vertec BioSolvents produces superior performance through sustainable technologies. Visit our website or call 630-960-0600 for more information, or to request a sample from our line of bio-based, safe solvents.

How Can Your Business Reduce Ozone Depletion?

Tue, 25 Oct 2022 20:42:25 GMT

As designated by the United Nations, September 16 every year marks International Day for the Preservation of the Ozone Layer . In 2022, the U.N. observed 35 years of the world’s progress in defending the ozone layer against synthetic chemicals. These chemicals can cause damage to the protective ozone layer, and lead to dramatic issues with climate heating.

This worldwide effort to preserve the ozone layer and prevent a global health and environmental crisis is focused on efforts to phase out Ozone Depleting Chemicals. Thanks to this awareness, the UN Environment Programme (UNEP) has found that there has indeed been a substantial reduction in ozone-depleting emissions over the last two decades. There is some evidence currently available that the ozone layer may even be healing itself, and it could possibly recover by the middle of this century.

This is great news for the future of the planet, but these efforts cannot stop now. While countries are making laws that focus on the greater world issues, individual businesses can also do their part by reducing the harmful chemicals they use, and replacing them with sustainable or bio-based alternatives . This article looks at some steps your business can take to help reduce our reliance on Ozone Depleting Chemicals.

Ozone Depletion Impact on the Environment

The ozone layer is a thin shield of gaseous elements that sits about 15-30 kilometers above the earth’s surface. This protective layer absorbs the sun’s ultraviolet (UV) rays, which could be dangerous to all living matter. Unfortunately, centuries of human activity have eroded the ozone layer. Human-made substances such as Ozone Depleting Chemicals, which can be found in many everyday products and solvents, have caused damage to the ozone layer. Depletion of the layer or holes in it can allow more of the harmful UV rays to penetrate through to the earth’s surface.

Long-term exposure to this increased UV radiation can cause cancer and many other health problems for both humans and animals. Many of the Ozone Depleting Chemicals are also potent greenhouse gasses, which can accumulate in the atmosphere and contribute to severe climate change. Some chemicals which have been found to be most dangerous to the ozone layer include:

Halocarbons such as chlorine, fluorine, iodine or bromine.
Methyl bromide and methyl chloroform.
Carbon tetrachloride.
Nitrous oxide
Halogenated hydrocarbon
Families of chemicals including chlorofluorocarbons (CFCs), hydrochlorofluorocarbons (HCFCs), and halons.

These substances can be found in refrigeration and air conditioning equipment, as well as fire extinguishers. Other uses include solvents, aerosol propellants, and blowing agents for insulating foams.

Businesses' Role in Ozone Depletion

Many businesses, such as those in agriculture and industrial manufacturing, unfortunately, contribute to ozone depletion through the ordinary course of their operations. If your business involves cleaning, manufacturing, waste, or processing, there is the possibility that you may be using Ozone Depleting Chemicals. To reduce your role in ozone depletion, eliminate harmful compounds from your operations and use methods that are more environmentally friendly . Some examples of steps businesses can take to decrease their role in ozone depletion include:

Maximize transportation and operational efficiencies, to reduce energy consumption.
Allow for telecommuting when possible.
Check fire extinguishing equipment for active ingredients such as halon, halogenated hydrocarbon, or carbon tetrachloride.
Eliminate harsh cleaning products.
Work with local vendors wherever practical.
Avoid aerosol products with chlorofluorocarbons (CFC).
Properly dispose of pre-1995 freezers, refrigerators, and air conditioning units.
Keep machinery and equipment running efficiently.
Buy lumber, wood products, and plywood that have not been treated with methyl bromide.
Reduce or eliminate the use of methyl chloroform as a degreaser or adhesive.
Eliminate materials and solvents containing CFCs or HCFCs.
Avoid products made with ozone-depleting substances such as aerosol sprays, blowing agents, and cleaning products.
Support legislation for the reduction of Ozone Depleting Chemicals.
Increase the use of BioSolvents as an environmentally friendly, high-performing alternative to traditional petroleum-based solvents.

Why a Bio-based Alternative is More Sustainable

Businesses make decisions every day that can harm or not harm the ozone layer. It is to the mutual benefit of the world to look towards safer ways to meet the needs of business. Vertec BioSolvents provides a range of environmentally friendly, high-performing biosolvent alternatives to petroleum-based solvents for agricultural and industrial markets. Our products do not contain any environmentally hazardous ingredients - no Ozone Depleting Chemicals and no hazardous air pollutants (HAPs).

Our bio-based green solvents and solvent blends are derived from corn, soybeans, citrus, and other renewable feedstocks. Many of our solvents are revolutionizing the market for their innovation, technology, sustainability, and applications. These solvents are completely formulated from renewable resources. Our bio-based solvents have a reduced carbon footprint. Replacing petroleum-based solvents with our Vertec BioSolvents has a positive impact on reducing greenhouse gases. Our bio-based alternative products are used across a wide range of industries, including:

Agriculture
Paints, coatings, and inks
Cleaning and degreasing solutions
Petroleum
Industrial manufacturing
Cleaning tank trucks, ISO tanks, semi-bulk bins, reactors, and storage tanks
Washing printing presses
Sanitization

Our carefully researched line of bio-based green solvents includes:

VertecBio™ EL offers a 100 percent biodegradable way to cut through paints, coatings, and inks, making them a high-powered choice for cleanup .
VertecBio™ ELSOL , a product line that serves as drop-in replacements for existing petroleum-based solvents, including acetone, Isopropyl Alcohol, Butyl Cellosolve , Tetrahydrofuran, Cyclohexanone, MEK, and MIBK.
VertecBio Gold® , a biosolvent product line that is ideal for graffiti removers , paint strippers, heavy asphalt cleaners, and degreasers.
VertecBio™ Citrus products, which make excellent cleaners for epoxy, polyurethane, and other resins.
VertecBio™ DLR , a high-powered, environmentally friendly d-Limonene substitute .
VertecBio™ 5516 , an environmentally friendly solvent, is ideal for cleaning polyurethanes.
VertecBio™ Bio-Based Ethyl Acetate , our latest addition. This high-performance, 100% bio-derived Ethyl Acetate replaces all applications for petroleum-based Ethyl Acetate.

What Are Organic Solvents? Overview and Common Examples

Thu, 06 Oct 2022 16:43:06 GMT

Vertec BioSolvents is an innovative manufacturer of safe, sustainable, bio-based green solvents . We are determined to produce effective solvent blends that are derived from soybeans, corn, citrus and other renewable and safe resources. Many of our solvents are revolutionizing the market for their innovation, technology, sustainability, and applications. We understand that what we do may be new territory for some readers, so we want to take some time in this article to talk about organic solvents and the biosolvent option.

What are Organic Solvents?

Before we discuss the different types of solvents, let’s start at the beginning and define exactly what a solvent is. According to the toppr guide on solvents , a solvent is, “a substance in which solute is dissolved and forms a solution. Generally, a solvent is a liquid, but it can also be a solid, a gas, or a supercritical fluid.” In other words, a solvent is something that is capable of dissolving another substance. Examples of solvents might include nail polish remover, paint thinner, glue solvents, spot removers, detergents, and even perfumes.

One way to classify solvents is on the basis of polarity, or their ability to dissolve any solute. Solvents can be either polar or non-polar. Water is considered a universal solvent, because it has a high polarity. Non-polar solvents, such as benzene or carbon tetrachloride, use a mechanism similar to electrostatic attraction to cause electrons to group on one side and break down the solute.

Another way to classify these solvents is based on their chemical composition. There are two types of solvents which fall under this classification: organic solvents and inorganic solvents.

Inorganic Solvents: Inorganic solvents are solvents that do not contain the element carbon. The most common inorganic solvent is actually water, because it contains only hydrogen and oxygen. Other examples might include ammonia, sulfuric acid, and fluoride sulfuryl chloride. Generally, inorganic solvents are good electrical conductors.
Organic Solvents: Organic solvents, then, are those solvents which do contain carbon and oxygen in their composition. They are not good conductors of electricity. Examples of organic solvents would include alcohols, esters, ethers, ethyl acetate , ethanol, acetone , benzene, and ketones.

Inorganic vs Organic Solvents with Examples

Organic solvents are useful for many purposes, such as dissolving materials and substances, dispersing coatings, as a medium for chemical reactions, or as cleaning agents. They can be used in industries as diverse as polymers, textiles, plastics, dyes, printing, agriculture, footwear, and pharmaceuticals. Examples of products that might use organic solvents include:

Paints, varnishes, and lacquers
Adhesives and glues
Degreasing and cleaning agents
Laundry detergents
Cosmetics

Benefits of Organic Solvents

The different types of solvents have been used in various ways since antiquity, but the main benefit of organic solvents is that they continue to remain chemically stable while performing their dissolving duties. In some cases, their ease of combustion can be a benefit, although it is something which must be carefully monitored.

Organic solvents have proven to be highly effective at dissolving, cleaning, and degreasing. Benefits in various industries include:

Agriculture : Solvents are used in the formation of pesticides, herbicides, and growth enhancers.
Coatings & Paints : Solvents are used for cleaning paint guns and flushing paint lines.
Cleaning Products : Solvents increase the ability of products to clean, dissolve dirt and grease, or sanitize.

A Biosolvent Alternative from Vertec

Organic solvents are normally considered to be safe when used properly. Despite their benefits, however, many organic solvents are petroleum-based, which can be dangerous and hazardous to health. To provide a safer approach, Vertec™ BioSolvents provides high-performing biosolvent alternatives to traditional petroleum-based solvents for industrial and agricultural markets.

We produce bio-based solvents, which actually have a more environmentally-friendly reduced carbon footprint. The biosolvent carbon used in our products comes through naturally-occurring photosynthesis. Solvents that are petroleum-based, on the other hand, can add "virgin carbon," which is bad for the environment. In our approach, CO2 is captured from the atmosphere by a plant such as soy or corn. This balances the CO2 released when a biosolvent is used in a formulation or cleaning application. Replacing petroleum-based solvents with Vertec BioSolvents has a positive impact on reducing greenhouse gasses. Because we care, none of our products contain any environmentally hazardous ingredients, ozone-depleting chemicals, or hazardous air pollutants. Our line of bio-based green solvents includes:

VertecBio™ EL : Our Ethyl Lactate (EL) solvents offer a 100 percent biodegradable way to cut through paints, coatings, and inks, making them a high-powered choice for cleanup.
VertecBio™ ELSOL : Products in this line serve as drop-in replacements for existing petroleum-based solvents including acetone, Butyl Cellosolve, Isopropyl Alcohol, Cyclohexanone, Tetrahydrofuran, Toluene, Xylene, MEK and MIBK.
VertecBio Gold® : This biosolvent product line is ideal for paint strippers, degreases, graffiti removers, and heavy asphalt cleaners.
VertecBio™ Citrus : These products are excellent cleaners for epoxy, polyurethane and other resins.
VertecBio™ DLR : This is a high-powered, environmentally friendly d-Limonene substitute.
VertecBio™ 5516 : Another of our environmentally friendly solvents, this is ideal for cleaning polyurethanes.
VertecBio™ Ethyl Acetate Bio-Based : Our latest addition, this high-performance, 100% bio-derived Ethyl Acetate replaces all applications for petroleum-based Ethyl Acetate.

Our specialty line of VertecBio™ safe solvent products includes EL Pine , which is excellent for cleaning tank trucks, ISO tanks, semi-bulk bins, reactors and storage tanks; Ink Zapper, a patented blend that is a high-performance, economical and bio-based alternative for washing the press and blanket; and Sanitization, hand and hard surface sanitizers that offer a patented, high strength ethanol/ethyl lactate formula which kills 99.99+% bacteria.

Proudly made in the USA, Vertec BioSolvents places a very heavy emphasis on technology and sustainability, so that we can create bio-based solvents that are capable of outperforming their petrochemical counterparts. Made from corn, soybeans, citrus fruits and other similar substances, our products are used across a wide range of industries, including agriculture, inks, paints and coatings, petroleum, and industrial manufacturing. We produce superior performance through sustainable technologies! Fill out a form or call 630-960-0600 for more information, or to request a sample from our line of bio-based, safe solvents.

Reduce your greenhouse gas impact with this sustainable, high performance ethyl lactate solvent. Perfect for paints, coatings, and inks, view our PDF on this product for more information.

These high-performing solvents and solvent blends, derived from renewable sources like corn and sugar beets, are designed for use as formulating ingredients, carrier solvents, and cleaning solvents.

A high-performing solvent replacement for paints, coatings, and inks. Perfect for graffiti and paint removal, this eco-friendly solvent offers powerful cleaning capabilities while being safe for both users and the environment.

An excellent cleaner for epoxy, polyurethane, and other resins, this bio-based alternative is the perfect replacement for Xylene and Toluene cleaning solvents.

Environmentally friendly d-Limonene substitute. With a lower price point and excellent ability to cut through oily materials, adhesive, and inks, this bio-based solvent is the best option for your industrial, pharmaceutical, or chemical needs.

Environmentally friendly solvent ideal for cleaning polyurethanes and epoxies. Includes no environmentally hazardous ingredients, with a moderate drying time that leaves behind no residue.

This 100 percent biodegradable, high performance, versatile bio-based solvent is great for formulating and cleanup while leaving no residue. Also available in a Food Grade (FCC) formulation.

Excellent for cleaning tank trucks, ISO tanks, semi-bulk bins, reactors and storage tanks. This product eliminates the hazards associated with petrochemicals. It is a safe, non-toxic and non-carcinogenic cleaner that is also highly effective.

Transitioning to Safe Solvents: How and Why to Do It

Mon, 22 Aug 2022 19:45:36 GMT

Safe solvents are sought after more and more as companies decide that their usual ones are no longer sufficient for their needs. Environmental awareness, an increased emphasis on worker safety, and changes in market demands are some of the main drivers behind the change. What makes a solvent safe, and what are the benefits of switching?

What is a Safe Solvent?

A safe solvent differs from the typical types in a few key ways. The fact that these solvents are made without the use of petroleum products is the key factor. Companies are trying to move away from petroleum-based products of all sorts in order to reduce their environmental footprints.

Safe solvents created by Vertec BioSolvents are made from biological sources such as plant oils. This not only eliminates petroleum from the equation, but makes them sustainable. It can also reduce problems like irritation or allergic reactions in users, which helps to reduce worker injury claims and other such problems. Finally, bio-based solvents reduce the risk of environmental contamination since they are biodegradable.

What are Safe Solvents Used For?

Vertec's product line covers a wide range of uses. There are solvents for making paint, making ink, and cleaning. In most cases, they can be used as 1-for-1 replacements for petroleum-based options.

Many of Vertec's options are made to work with specific substances. For example, there's an option for cleaning off asphalt and other tough surfaces, another is for cleaning out various types of commercial tanks, and multiple options exist for cleaning polyurethane and other resins.

Other safe solvents are used for sanitization. The hard surface sanitizer can destroy over 99.99% of bacteria while also providing great general cleaning effects such as grease removal, and a patented method of providing persistence in sanitization Vertec also has a hand sanitizer with the same antibacterial power, but with skin conditioners and persistence.

There are also solvents used in paint manufacturing.

Some products are made to directly replace other common solvents. The recently relaunched VertecBio Ethyl Acetate Bio-Based is a perfect example. It's a 100% bio-derived product that works anywhere the petroleum-based version would be used.

Benefits of Safe Solvents

Traditional solvents cost companies both money and time in several ways. Since petroleum-based products are dangerous, they are subject to special storage requirements, extra paperwork, and in some cases, the need for extra PPE for those using them. Some also have re-entry intervals, meaning that people can't go back into a treated area until a certain amount of time has passed. This sort of requirement interferes with a facility's productivity and can result in fines and expensive cleanup costs for companies that get it wrong.

Safe solvents address all of these issues. As the name says, they are safe in many ways. If they get into the environment, they are biodegradable and won't cause a hazmat event. Because of this, the storage and paperwork requirements are much lower. They can basically be stored anywhere, and in some jurisdictions, there may be no special recordkeeping requirements.

Bio-based solvents also tend to be less flammable. You'll sleep easier knowing that they won't cause an explosion or a massive fire in your facility. Not only that, with some products you won't need to have a special fireproof storage area just for them.

The need for PPE is lower in some cases. Gloves may be recommended for particularly strong formulations, but the need for full suiting or other extreme precautions is rare. In fact, some safe solvents are meant to be used directly on the hands. Vertec's hand sanitizer is the perfect example of just how safe, safe solvents can be.

It is also possible to go back into a treated area much sooner when safe solvents are used. This lets you get your equipment back up and running much more quickly, thereby eliminating long periods of unproductivity.

How to Transition to Vertec BioSolvents Safe Solvents

There are a few steps involved in transitioning from traditional solvents to safe ones.

Determine your requirements
Find a suitable bio-based product
Work out any needed changes in your formulas
Obtain the safer alternative product
Implement the changes

If you're already manufacturing a product, you already know your requirements. Therefore, this will be the easy part.

Next, go to a producer of bio-based solvents to find the products that will meet your requirements. Vertec BioSolvents currently offers over 20 options . This number ensures that your needs are covered, without overwhelming you with hundreds of confusing options. It is very easy to pick one or more products from the lineup.

In some cases, you may find that you need to adjust your current formulations to take the properties of the new ingredients into account. This is often a good thing, since some Vertec products are more powerful than the components that they'll replace. In these cases, you'll save money in the long run because you won't need to use as much solvent as before.

At other times, you'll be able to do a 1-for-1 replacement of your old solvent. These products have the same chemical properties as petroleum-based products, but are made from biologically-sourced inputs.

The details of your implementation will depend on your product and how you use it. Typically, you won't find this aspect to be troublesome. For any 1-for-1 replacement, it should be as simple as putting the new product into the production process instead of the old one. Other solvents may require slight adjustments to your current formulas.

Now that you know the benefits of transitioning to safe solvents and how easy it is to find a suitable option, you can see why so many companies are making the switch. Contact Vertec BioSolvents today to learn more and see how your business, and the environment, will benefit from joining this wave of modernization.

Why is D-Limonene a Good Solvent?

Thu, 11 Aug 2022 15:57:08 GMT

A d-Limonene solvent consists of the oil that is left after citrus fruits go through an extensive process of extracting the juice from the fruit and then separating the juice from the oil. This ends with a food-grade d-Limonene.

The remaining peels next go through a steaming process which yields even more oil. This is a technical grade d-Limonene used as a solvent in many cleaning products.

D-Limonene is also known as Citrus Terpenes and is “a natural, mild, and environmentally-friendly fragrance, degumming agent, and powerful cleaner.”

One example of this type of product takes the form of VertecBio’s Citrus #1 . This is a strong cleaner with a citrus scent that falls under the category of ready-to-use, bio-based solvent cleaners and removers. Also available is VertecBio’s Citrus I20 . This is still ready-to-use, but thanks to its composition it is ideal for paint line flushing and oily surfaces. Finally we have VertecBio’s Citrus BA 135 . This cleaner and remover is suitable for polyurethanes and for use as an NMP replacement .

D-Limonene Solvent Uses

D-Limonene serves a variety of essential roles across different industries. Primarily, it acts as a replacement for less desirable solvents like acetone , methyl ethyl ketone , toluene, and xylene, along with many chlorinated solvents due to its potent cleaning capabilities. In manufacturing processes, d-Limonene, though not water-soluble by itself, is combined with surfactants to effectively remove tough substances such as tar and asphalt.

In cleaning applications, d-Limonene is a crucial component in formulations blended with surfactants, calcium, magnesium, and other additives. This formulation allows it to tackle fuels, oils, grease, asphalt, and various other contaminants effectively.

The concentration of d-Limonene in products determines its specific use:

Products containing more than 50% d-Limonene are particularly suited for heavy-duty tasks such as removing adhesives, gum, tar, and wax. Some formulations with up to 90% d-Limonene are used for cleaning trucks, construction machinery, and other heavily soiled equipment.
Products with 20% to 50% d-Limonene are commonly found in automotive applications like brake cleaners and engine degreasers, where foaming properties are not required.
Products containing less than 20% d-Limonene, often categorized as detergents, are used in products like glass cleaners, floor cleaners, and upholstery cleaners.

Overall, d-Limonene's versatility and effectiveness make it a preferred choice in various cleaning and degreasing applications , catering to both industrial needs and everyday household cleaning tasks.

D-Limonene Benefits

There are many benefits to using d-limonene solvent as a cleaner. Some are:

Biodegradable.
contains no ozone-depleting chemicals.
approved by the FDA for use in food.
approved for use by the EPA since it does not negatively affect the environment.
not carcinogenic
a versatile product and even replaces the possibly toxic turpentine in paint thinner.

The Environmental Protection Agency (EPA) classifies d-Limonene as a non-toxic chemical. It biodegrades quickly and is much less toxic than other solvents it replaces, such as chlorinated solvents.

D-Limonene Disadvantages

d-Limonene, while versatile and effective, does come with some considerations. Firstly, it exhibits limited water solubility, necessitating the use of special surfactants for applications requiring aqueous solutions. Users should also be aware of potential skin sensitivity issues, particularly with concentrated forms, emphasizing the need for proper handling and personal protective equipment (PPE).

Furthermore, the strong citrus odor, while pleasant to many, may not be suitable for all environments or preferences. Price volatility is another factor to consider, as fluctuations in citrus crop yields and processing demand can impact product costs and budget planning. Compatibility with certain surfaces should also be assessed, as d-Limonene may not be universally suitable without prior testing.

Despite being biodegradable, its persistence in the environment can vary, prompting careful consideration of disposal methods. Lastly, staying informed about regulatory compliance with FDA and EPA guidelines is crucial due to evolving standards and requirements.

Limited water solubility requires special surfactants.
Potential for skin sensitivity, especially in concentrated forms.
Strong citrus odor, which may not be suitable for all environments.
Price volatility due to fluctuations in citrus crop yields and processing demand.
Surface compatibility requires prior testing.
Biodegradable, but environmental persistence varies.
Regulatory compliance with FDA and EPA guidelines is essential.

D-Limonene Alternatives

The two most common alternatives to d-Limonene are soy oil solvents and terpenes from pine trees. Both work well, but each has its own drawbacks.

Soy oil as a solvent is slow reacting. It is oily and due to a limited supply, may be difficult to access.
Terpenes from pine trees have a terrible odor. If scientists can figure out how to get rid of the odor, it will be a good solvent since the supply is essentially unlimited.
Like citrus trees, there are a lot of pine trees so the sources for both are renewable.

Vertec Bio’s DLR Benefits

Vertec BioSolvents Inc. has developed the innovative VertecBio™ DLR as a robust alternative to d-Limonene. Here’s why it stands out:

High-Powered and Cost-Effective : Through extensive research, Vertec BioSolvents Inc. engineered DLR to deliver powerful cleaning performance at a competitive cost. Unlike standard d-Limonene solvents, which can be costly and subject to price fluctuations, the VertecBio™ DLR offers stable pricing, making budgeting more predictable for businesses.
Environmentally Friendly : DLR is a sustainable choice for environmentally conscious consumers. It boasts a pleasant pine odor and is approved by the EPA. Free from ozone-depleting chemicals and environmentally hazardous ingredients, DLR is 100 percent biodegradable, aligning with sustainable practices.
Compliance and Safety : Unlike some cleaning products, DLR is not listed on California Prop 65, which alerts consumers about potential hazards from specific chemicals. This distinction underscores its safety and compliance with rigorous environmental standards.

VertecBio™ DLR represents a significant advancement in solvent technology, combining effectiveness with environmental responsibility, making it an ideal choice for various cleaning applications.

VertecBio™ DLR is a high-powered, environmentally friendly d-Limonene substitute. With a lower price point and excellent ability to cut through oily materials, adhesive, and inks, this bio-based solvent is the best option for your industrial, pharmaceutical, or chemical needs.

Vertec BioSolvents is an innovative U.S. manufacturer of sustainable, safe, bio-based solvents and solvent blends. We are mindful of the importance of saving the environment. Accordingly, all of our products are made with sustainability and performance in mind. You can safely use them as alternatives to petroleum-based solvents.

Contact us online to discuss your solvent needs. We look forward to helping you find the alternative that will work for you as you strive to create a sustainable future for your business. You may also call us at 630.960.0600 and speak personally to a representative. We provide free samples of any of our products.

What is Cyclohexanone Used For?

Mon, 02 May 2022 21:44:54 GMT

Cyclohexanone is a clear, pale yellow, or sometimes colorless, chemical liquid that is used as an organic solvent for many purposes. Some say it has a minty, acetone odor. Others describe the odor as pleasant. There are still other people who say the chemical has no odor.

The chemical occurs naturally in crude oil but is also manufactured synthetically. It is the key ingredient in the production of nylon. There are numerous health risks that come with exposure to cyclohexanone.

Although large quantities of the chemical are produced and used annually, there is a replacement for the chemical that is not hazardous, is made from sustainable products, and performs as well as, or outperforms, cyclohexanone. Health risks to the replacement are essentially nonexistent.

What is Cyclohexanone?

According to the Merriam-Webster dictionary , Cyclohexanone is “a liquid ketone…used especially as a solvent and in organic synthesis.” The dictionary adds that cyclohexanone is an oily substance. It is sometimes white, sometimes yellow. It is a solvent used in manufacturing nylon. It is also used for thinning resins and lacquers.

The chemical solvent is also known as Anone, Cyclohexyl ketone, and Pimelic ketone. The first known chemical experiment that resulted in the discovery of cyclohexanone was in 1909.

What is Cyclohexanone Used For?

Cyclohexanone is a chemical that mixes well with most other organic solvents . It is found in a variety of consumer products. Some products where it can be found include:

Adhesives
Automotive
Cleaning and furniture care products
Electronics
Paints
Photo chemicals
Polyesters and synthetic resins

It is also used as a solvent for:

Cellulose acetate
Crude rubber
Degreasers
Lacquers
Paints
Polymers and copolymers
Resins
Spot removers
Waxes

The chemical is also found in the manufacturing of antihistamines and herbicides.

What Industries Use Cyclohexanone?

Many industries use cyclohexanone. A few examples include:

The nylon industry.

The manufacturing of nylon is the main industry that uses cyclohexanone. Derivatives of the chemical are oxidized to produce adipic acid and caprolactam, precursors for nylon 6. Approximately 70 percent of the world’s caprolactam is produced by way of cyclohexanone.

The caprolactam is then heated with water and by way of a complicated chemical process turns into nylon 6. Nylon 6 is found in fishing lines, clothing, stockings, toothbrushes, hairbrushes, lingerie, windbreakers, plastic screws, and more.

The pharmaceutical industry.

Cyclohexanone derivatives are used in the synthesis of pharmaceuticals such as antihistamines.

Other uses.

The chemical derivatives are used as adhesives, in the automotive industry, in cleaning and furnishing care products, as a coating additive, in the synthesis of dyes, in electronics, fuel, herbicides, laboratory chemicals, paint, pesticides, photo chemicals, plasticizers, and rubber chemicals.

Cyclohexanone is used as a solvent for crude rubber, cellulose acetate, degreasers, lacquers, paint, polymers, copolymers, resins, spot removers, and waxes.

Risks and Hazards Associated with the Use of Cyclohexanone

Cyclohexanone is a dangerous product and its use in manufacturing comes with health risks and damage to the environment.

Reasons to use a replacement for cyclohexanone are to avoid the risks that come with exposure to cyclohexanone. The substance is harmful if inhaled and may cause irritation and damage to the respiratory tract as well as cause nausea, depression, and headaches.

If cyclohexanone comes into contact with the eyes, nose, and skin, it can cause extreme irritation and damage to the organs. It must be immediately washed away. Exposure can cause drowsiness and lead to unconsciousness. It causes liver and kidney damage to mice and research is being conducted to determine if it causes similar damage in humans.

To avoid damage to the respiratory system and irritation to the eye and skin, it is recommended that personal protective equipment (PPE) be used when handling cyclohexanone.

It is highly flammable and must be stored in a cool, dry place that is well-ventilated and free from any ignition or sparks.

Replace Cyclohexanone with Vertec's environmentally friendly ELSOL® CXR

Vertec has researched and developed an alternate product that replaces the hazardous material cyclohexanone with environmentally friendly ELSOL®CXR . This product does everything that cyclohexanone does but has a formula that reduces its impact on the environment and is not toxic to users.

Specific benefits of replacing cyclohexanone with ELSOL®CXR are:

It does not contribute to global warming
It does not contain any environmentally hazardous ingredients
It does not contain any ozone-depleting chemicals (ODCs)
It does not contain any hazardous air pollutants (HAPs)
It is 100 percent biodegradable to water and carbon dioxide
Made from renewable resources
High loading capacity
It leaves no residue
It is easy and economical to distill or recycle
It is 20 to 30 percent more efficient in viscosity reduction

Vertec BioSolvents are High Performance and Derived from Renewable Resources

Vertec BioSolvents is an innovative U.S. manufacturer of sustainable, safe, bio-based solvents and solvent blends. Our products are all made with sustainability and performance in mind. You can safely use them as alternatives to petroleum-based solvents.

Contact us online to discuss your solvent needs. We look forward to helping you find the alternative that will work for you as you strive to create a sustainable future for your business.

You may also call us at 630.960.0600 and speak personally to a representative. Ask for a free sample.

VertecBio™ ELSOL® CXR

VertecBio™ ELSOL® CXR is a bio-based cyclohexanone solvent replacement, with reduced solvent usage, and leaves behind no residue.

Dibasic Ester Overview: Applications for DBE

Wed, 06 Apr 2022 15:18:26 GMT

For decades, industrial and household cleaning products , paint, inks, and coatings have been toxic to human and animal health and to the environment. Customers care about the environmental impact of their products more now than they ever have in the past. In fact, a 2020 study found that 81 percent of people expect companies to be environmentally conscious in their advertising and communications; 91 percent understand that the way we act now will have a big impact on the future, and 85 percent of consumers are concerned about air pollution.

The good news for solvent manufacturers is that consumers respond to companies seeking to make a difference. When asked what measures would have the greatest positive benefit to the environment, 58 percent of consumers indicated that adopting environmentally friendly products was at the top of the list.

In many industries, however, despite consumer demand, the use of toxic and unnatural chemicals in many solvents has not dramatically diminished. A stereotype still exists perpetuating a myth that the majority of the environmentally safer solvent alternatives do not provide satisfactory performance. These beliefs are left over from a time before companies like Vertec BioSolvent developed products with the environment and top-notch functionality in mind.

Vertec BioSolvent's Answer: A 100% Biobased Replacement for Dibasic Ester

At Vertec BioSolvent, we believe that non-toxic, natural solvents that are safe for both humans and the environment should meet three essential criteria: (1) they should provide effective performance; (2) they should be economically viable and affordable; and (3) they should widely available all over the world.

Enter VertecBio™ ELSOL® DBER : a 100 percent biobased replacement for dibasic Ester. ELSOL DBER features better cleaning power and reduced solvent usage versus petroleum-based dibasic ester. ELSOL DBER is designed for use in both industrial coatings applications and industrial cleaning and surface preparation applications. With ELSOL DBER, you’ll not only see more effective cleaning power, but you’ll also save money over purchasing dibasic ester.

Benefits of Using ELSOL® DBER

Better cleaning power than petroleum-based dibasic ester
Precision cleaning solvent that dries completely and leaves no residue
20-30 percent more efficient in viscosity reduction than dibasic ester
Provides excellent flow characteristics in formulation
Safe, non-toxic, non-carcinogenic
High loading capacity
Easy and inexpensive to distill or recycle
100 percent biodegradable to carbon dioxide and water
Carbon neutral
EPA approved SNAP solvent
No ozone-depleting chemicals (ODCs)
No environmentally hazardous ingredients
No hazardous air pollutants (HAPs)
Manufactured in the United States of America

Applications for ELSOL® DBER

Bio-based replacement for dibasic ester
Solvent for formulations and cleaning
Solvent for industrial and household paints
Solvent for automotive, wire enamel, and other coatings
Solvent for polyester and epoxy sealing coat
Solvent for ink formulations, including printer inks
HI&I cleaning applications

Use ELSOL® DBER as a Replacement for:

N-methyl-2-pyrrolidone (NMP)
MEK
Methylene chloride
Isophorone
Certain glycol ethers and their acetates
Acetone
Cresylic acid

Why Make the Switch to ELSOL® DBER?

Health and Safety of Customers, Children and Pets: The presence of dimethyl succinate in the formulation of dibasic ester is certainly a cause for concern among manufacturers who use dibasic ester in their solvents and other products. Dimethyl succinate is a hazardous chemical that is continuously monitored by government agencies. It has been noted to cause a range of potential negative health effects, including eye irritation, skin irritation, and respiratory system and digestive tract irritation if accidentally ingested or inhaled.

Developing Restrictions on Toxic and Hazardous Chemicals in the European Union and in the United States: It’s no secret that consumers are educating themselves about what’s in their household products. The government at home and abroad is catching up, too. More stringent policies are being put in place to meet the demand of an educated populace.

According to Bloomberg Law and the Safer States Advocacy Group, nearly three dozen states are slated to consider new laws and policies to tighten regulation on toxic chemicals in 2022. The Safer States group reports it expects 32 states (or more) to contemplate at least 210 bills addressing toxic chemical policies this year alone.

Consumer Demand on the Uptick: Data from the newly published Smithers study , The Future of Sustainable Cleaning Products to 2026, concluded that in 2021, the total value for environmentally friendly products, including laundry, surface care, dishwashing, and bath products will climb to an estimated $72.9 billion in retail value, and an even greater $109.7 billion in 2026.

Vertec BioSolvents: Your Partner for Environmentally Friendly Alternatives to Traditional Petroleum-Based Solvents

Vertec BioSolvents creates and sells environmentally friendly alternatives to traditional petroleum-based solvents that customers love. We pride ourselves on our research and development processes, which have led to proprietary and patented blends of bio-based solvents that perform equal to or better than harmful, petroleum-based options. With growing awareness of the need to reduce our environmental impact, customer demand is higher than ever for bio-based solvents as substitutes in existing formulas.

VertecBio™ ELSOL® DBER is a s uggested bio-based replacement for Dibastic Ester , with better cleaning power and reduced solvent usage vs. petroleum based DBE.

Our alternatives are made from natural sources, such as corn, soybeans, citrus fruits, and other renewable feedstocks. All of our products contain no environmentally hazardous ingredients, ozone-depleting chemicals (ODCs), or hazardous air pollutants (HAPs).

Our products are used across a wide range of industries, including agriculture and industrial manufacturing, and are used in everyday products like household and industrial cleaners, inks, paints, and coatings.

Looking to find the perfect product for your application? You can always request a sample of one of our products. Give us a call at (630) 960-0600 or contact us online today .

How to Clean a Spray Paint Gun

Tue, 25 Jan 2022 22:27:58 GMT

Cleaning your spray paint gun after a paint job is the easiest way to keep your paint gun working smoothly and get a good quality paint job, every time.

It is important to clean your paint gun immediately after use, to avoid having paint dry in the gun, or the essential spray nozzles.

If the paint is left to dry inside your paint gun, it can cause the spray nozzle to clog, and over time paint residue will build up, causing the paint gun to stop working altogether.

Your spray paint gun may also need to be cleaned if you are experiencing an uneven spray or spitting of paint.

In this post, you will learn different ways of cleaning a spray paint gun. Every paint gun is different, so before cleaning, make sure you have your spray paint gun manual on hand and the following supplies.

Paint Gun Cleaning Supplies:

1. Gloves- gloves will help protect your hands from the paint you are trying to remove

2. VertecBio™ Citrus I20

3. Toolset included with your spray paint gun

4. Cleaning sponge, bottle cleaners, or spray paint gun cleaning kit

5. Disposal Can

6. Small Bucket- if soaking the gun

Step One: Clean Out the Spray Paint Can

The first step in cleaning your spray paint gun is to clean out the paint can. This is where you will want to wear your gloves. Simply unscrew the paint can from your paint gun.

If there is paint still in the paint can, you can either dispose of it or put it in a paint can for later use.

Once the paint has been removed from the paint can use paper towels, or a sponge, to clean out the rest of the paint in the paint can.

It is essential to also clean the lid on the paint can, and the screw top.

Once all the paint is cleaned out of the paint can fill the paint can with a half cup of VertecBio™ Citrus I20

Use the spray gun and spray the cleaner into the disposal can until the cleaner runs clear.

Once you have sprayed the cleaner through the gun, remove the paint can again, and wipe it out once more with paper towels.

Set aside and let dry.

Step Two: Disassembling Spray Paint Gun

Disassembling a spray paint gun is a fairly easy process. It is important to remove pieces from your spray paint gun one at a time so that you can clean them properly.

Removing the pieces one at a time will also help you stay organized for when it is time to reassemble the spray paint gun.

This is where your user manual will come in handy if you have any issues finding parts of the spray paint gun that need to be disassembled.

Step Three: Remove the Fluid Needle

Remove the Fluid Needle from your spray paint gun. On most spray paint guns, the needle is located on the rear of the gun. You want to be careful when removing the needle to not bend or break the needle. Any damage to the needle will cause your paint gun to not work properly.

Once the needle is removed. Use VertecBio™ Citrus I20 to clean the needle.

Set the needle aside.

Step Four: Remove the Air Cap

Remove the air cap from the front of the paint gun. Once the air cap is removed, clean it thoroughly withVertecBio™ Citrus I20. This is a good time to use the needles that came with your spray paint gun kit to clean out the holes in the spray cap. Cleaning the holes in the spray cap will ensure that you get a clean and even spray on your next paint job.

Step Five: Remove Fluid Nozzle

With tools that came with your spray paint gun, find the right size wrench and remove the fluid nozzle that is underneath the air cap. Once the fluid nozzle is removed, clean again with the VertecBio™ Citrus I20 and set to the side.

Step Six: Flush out Spray Paint Gun

Start rinsing out the body of the spray paint gun with VertecBio™ Citrus I20. At this time, if you prefer, you can soak the remaining paint gun in a bucket ofVertecBio™ Citrus I20. Leave to soak for 10 minutes, and then pull it out and wipe it down. While rinsing out the spray paint gun, make sure to be holding down the handle of the gun so the fluid runs through the entire gun, and cleans both the inside and the outside of the paint gun.

Step Seven: Wipe Down the Spray Paint Gun

Once the body of the paint gun is rinsed out, or soaked for the appropriate amount of time, it is time to do the final wipe down of the paint gun. Take every piece and make sure that you have wiped dry every part of the spray paint gun, and that no paint remains on any of the pieces.

Step Eight: Reassemble the Spray Paint Gun

Once all parts of your spray paint gun have been cleaned with VertecBio™ Citrus I20, it is time to reassemble the spray paint gun.

Start with the fluid needle, and carefully screw it back into place.

Once the needle is back into place, take the Fluid Nozzle and replace it on the front of the spray paint gun.

After the fluid nozzle is in place, attach the Air Cap to the front of the gun.

Finally, attach the paint can back to the spray paint gun, and you are ready to go.

Cleaning a Spray Paint Gun with Solvent Alternatives

Taking care of your spray paint gun is essential to succeeding in every paint job that you do. Using VertecBio™ Citrus I20 in cleaning your spray paint gun will help aid in the proper cleaning of your spray paint gun, while not harming the environment.

Learning how to clean your spray paint gun is an essential skill to have, and the sooner your spray paint gun is cleaned after a job, the better.

We hope this helps you to understand just how to clean out your spray paint gun, and how VertecBio™ Citrus I20 can help with your toughest jobs.

What is NMP Used For?

Tue, 28 Dec 2021 16:49:38 GMT

What is an NMP

N-Methylpyrrolidone, also known as NMP or 1-methyl-2-pyrrolidone, is a petrochemical solvent found in many diverse products and practical uses in different industries. NMP has commonly been used in the petrochemical industry, with its high solvency and high boiling point, making it a popular option for paints and paint strippers. However, like many petrochemical solvents, NMP releases pollutants into the air if not properly recycled after use. The volatile nature and health risks of solvent exposure caused a demand for greener, safer alternatives.

Below we will discuss the different uses for NMP, how different industries use NMP, and some alternatives manufacturers can use to make their products that use NMP safer.

NMP Solvent Uses

What is NMP Used For? NMP can be found in a variety of applications such as adhesives, cleaners, sealants, cosmetics, dyes, inks, and pesticides. However, the average consumer will likely encounter it in paint strippers and coating removers in many stores around the country.

Depending on the industry, some work directly with manufacturing products using solvents, while some may be exposed to working with the products themselves. Below we list some different instances of solvent exposure in different work environments.

Industrial Solvent Uses

Solvents of all kinds are commonly used in manufacturing and many other industries such as pharmaceutical and automotive. It is likely industrial uses include the highest level of exposure to NMP. We list some common uses of NMP in industrial uses below.

- Processing agents

- Paint and coating removal additives

- Cleaning agents

- Electronics

Commercial Solvents Uses

There are many different possibilities for NMP solvents to appear in commercial businesses. Some products are more industry-specific, while some are likely found in any type of business. A few examples include:

- Automotive industries such as body shops and garages. Products used for paints, wheel stripping, restoration, and

maintenance

- Nail, hair, and spa salons, or anywhere nail polish remover is used

- Construction and contracting industries using coatings, paints, binders, and sealants

- Furniture refinishing

- Cleaning products, both generic cleaners such as floor cleaners and polishes, and other specialized equipment cleaners

- Graffiti and coating removal

Household Solvent Uses

Industrial and commercial industries working with NMP aren’t the only ones affected. Average consumers are also exposed to NMP, since it can be found in numerous household products. Some items that may feature NMP solvents include the following.

- Paints and paint strippers

- Wood and furniture strippers

- Floor and surface cleaners

- Leather treatments

- Makeup and cosmetic products such as mascara and hair dyes

- Clothing and shoes

- Beddings and linens

- Adhesives for craft projects

- Flea treatments and other pet care products

The presence of NMP in so many common products may be alarming to the typical uninformed consumer. Luckily, many companies are completely phasing out the use of NMP now that many have found ways to replace it with safer options.

How to Handle NMPs

Proper handling of NMP (N-Methylpyrrolidone) is crucial to ensure safety and minimize environmental impact. Given its widespread use in various industries, understanding and implementing best practices can significantly reduce health risks and environmental concerns.

Personal Protective Equipment (PPE) and Ventilation

Always use personal protective equipment (PPE) when handling NMP, including gloves, safety goggles, and protective clothing to prevent skin and eye contact. In industrial settings, appropriate respiratory protection is recommended, especially in poorly ventilated areas or when NMP is heated, as it can release harmful fumes. Ensure that NMP is used in well-ventilated areas. Good ventilation helps disperse vapors, reducing the concentration in the air and the risk of inhalation. In enclosed spaces, use local exhaust ventilation systems to capture and remove airborne NMP before it can spread.

Storage and Spill Response

When storing NMP, keep it in tightly sealed containers to prevent leaks and evaporation. Store these containers in a cool, dry place, away from direct sunlight and sources of ignition. Proper labeling and regular inspection of storage areas are essential to prevent accidental spills or exposure. In case of a spill, quickly contain and clean up using absorbent materials, and dispose of the waste according to local regulations. Avoid letting NMP enter drains or waterways, as it can be harmful to aquatic life.

Employee Training and Safer Alternatives

Training employees on the proper handling, storage, and disposal of NMP is critical. Regular safety training sessions ensure that all personnel are aware of the risks and know how to protect themselves and the environment. Consider using safer alternatives to NMP wherever possible. Transitioning to greener solvents can reduce the risks associated with NMP, contributing to a safer workplace and a cleaner environment.

By following these guidelines, you can handle NMP safely and responsibly, mitigating its potential hazards while maintaining its effectiveness in various applications.

Alternative Solvents to Substitute NMP

As you can now see, NMP has many uses, but it’s not the only option. Many companies in the industries listed above are transitioning to using greener, safer alternatives to the petroleum-based solvent. More and more consumers are keeping an eye out for products using organic solvents, so they do not need to worry about solvent exposure risks in their homes. In fact, NMP is even being banned in many countries due to the environmental and safety concerns of the solvent.

Below we list a few replacements for NMP that contain no hazardous ingredients or air pollutants.

Vertec Bio ELSOL NMPR

First on our list of NMP alternatives is VertecBio ELSOL NMPR . It includes no environmentally hazardous ingredients, no hazardous air pollutants (HAPs), or other harmful substances. It is also incredibly well suited for replacing NMP in cleaning applications.

VertecBio ELSOL NMPR is also especially effective for cleaning polyurethanes and as a solvent for paints, coatings, and ink formulations. You do not need to sacrifice cleaning power by using a substitute, and ELSOL NMPR offers just that.

Vertec Bio ELSOL NMPRx3

VertecBio ELSOL NMPR3 is another bio-based replacement for NMP, with a versatile solvent blend for formulating, and ideal solvency for paint, coatings, and ink formulations.

Additionally, custom blends are available to ensure you have a solvent that is ideally suited for your application and can perform optimally.

These alternatives both eliminate health risks due to using 100 percent biodegradable, safe, and non-carcinogenic ingredients made from renewable sources. This means there’s low vapor pressure and high loading capacity.

Vertec BioSolvents – Finding Better Uses with NMP Replacements

At Vertec Biosolvents, we want to improve your application process through sustainable and high-performing bio-based solvents. When it comes to NMP formulations, not only can we help you choose safer options for both your workers and the planet, but we can also help you choose formulations and products which are just as effective and powerful as their petroleum counterparts.

From NMP and on, wherever petroleum solvents are used, we can provide an alternative. Contact our team today to discuss your needs. We look forward to speaking with you.

Working Safely with Solvents: A Guide

Fri, 03 Dec 2021 22:33:05 GMT

Within things like paint, cleaners , adhesives, ink, and coatings are liquid chemicals known as solvents, which are used to thin or dissolve these materials. While some solvents can typically be handled safely, prolonged exposure or improper contact can potentially be hazardous. Since likely every household and workplace hold at least one item containing solvents, many don’t think about the risks that can occur from consistent proximity, when it should be a priority on everyone’s minds. Beyond the concern about health issues, solvents also endanger the environment if handled incorrectly. Improper storage or recycling of solvent products impacts the workspace, human health, and the planet.

Luckily, if you know the dangers of solvents, how to properly handle working them, and how to avoid the dangers altogether by working with environmentally friendly alternatives, you can create a workspace devoid of any health or environmental risks. In this article we will cover the health and safety risks of solvents and what you need to know about safer alternatives in order to continue working safely with solvents in your products.

Dangers of Working with Solvents

Solvent exposure is one of the most common chemical health risks at the workplace. Solvents are incredibly flammable and combustible and should always be stored and handled with care. Because of their volatile nature, anything that could be considered an ignition source, such as smoke or sparks from welding, should be kept away from solvents and the vapors that are produced from them.

If not using safer less-toxic solvent substitutes, you should be aware of any potential danger of working with petrochemical solvents. Often the most concerning effect of prolonged solvent exposure is not realizing the adverse health effects until the damage has already been done. We list a few adverse effects of solvent exposure, especially when handled improperly, below.

Contact with the skin will cause dryness and cracking. This may lead to skin disorders, most commonly dermatitis. Take extra care with contact with the skin, as some solvents can possibly penetrate the skin and enter blood circulation.
Inhaling solvents will cause burning in the nose, throat, and lungs.
Swallowing or ingesting solvents will burn the throat and affect the digestive system.
Prolonged exposure to solvents will have overall negative health effects, mainly on the respiratory system, but also on the nervous system, reproductive system, and the kidneys.

Consider Alternatives!

Fortunately, it is not necessary to use harmful petrochemical solvents, as plenty of safe bio-based solvent options exist. When you take inventory of the solvents you work with or are found in the workplace, consider starting with the most serious risks and substitute it with something less hazardous if possible.

Using only renewable ingredients, non-toxic solvents such as VertecBio™ EL Ethyl Lactate are both environmentally friendly and safer for use in all kinds of paints, coatings, and inks. Vertec uses environmentally safe alternatives made with corn, soy, citrus fruits, and other bio-feedstocks, meaning less risks to employee health and little, if any, damage to the environment.

What to Know When Using Solvents

If a safer bio solvent option cannot be substituted, just know to take extra precautions to avoid some of the health risks mentioned above. We provide some examples of safety measures that should be implemented to assure the risks are kept to a minimum.

Safety Measures

Use personal protective equipment such as gloves, eye protection, boots, or any other barriers when working with solvents. Make sure all necessary equipment is provided by an employer if in the workplace.
Make sure the room is properly ventilated, especially if the workspace is small. Solvents often get into the air through emitted vapors, ventilation is needed to help with air circulation.
Be informed on what type of solvent you’re working with. Familiarize yourself with any safety information and safe handling procedures included.
Be extra cautious with flammable solvents and keep fire extinguishers readily accessible in any areas which these solvents are used or stored.
Train employees on what to do if a spill occurs or an emergency happens.
Of course, use a safer bio-based solvent alternative whenever possible, so a lot of these additional safety measures can be avoided in the first place.

Environmental Concerns

With more requirements and regulations set forth by the government, sometimes a greener solution is needed. Many solvents harm the air, soil, and water, both from the vapors they give off and from decomposition. Solvents do add carbon to the environment, but bio-based solvent carbon comes through photosynthesis, ultimately reducing the carbon footprint from petroleum-based solvents.

The growing demand for safe products from consumers has caused a shift in the supply to focus on environmentally and health-safe products. Using bio solvents means there is low vapor pressure, carbon neutrality, no environmentally hazardous ingredients, and one hundred percent biodegradable materials. Using bio solvents for your products will appeal to your consumers while contributing to a healthier environment.

VertecBio™: Solvents with a Focus on Sustainability and Performance

At Vertec, we are fully committed to sustainable solvent technology, creating products which are designed to not only be safer than their petrochemical counterparts, but also even more effective. We believe that “environmentally friendly” and “high performing” need not be mutually exclusive, and we’re seeking to revolutionize the industry with every ethyl lactate, d-limonene, soy methyl ester, or ethanol bio-based formulated product we develop!

If you need a safer, more effective solution for your solvent needs, Vertec’s Bio-Based Solvents are the answer. Contact our team today for more information on which product will be best for your application.

How Ethyl Lactate Manufacturers are Helping Businesses Replace Millions of Tons of Toxic Solvents

Wed, 13 Jan 2021 22:30:31 GMT

From paint and adhesive removers to ink cleaners and more, the world relies heavily on affordable and effective solvents. Unfortunately, many of these most useful solvents are also extremely volatile and dangerous to use, for both our employees and our planet . An alternative solution is needed, and ethyl lactate manufacturers are more than prepared to provide one.

Made from an esterification reaction of ethyl alcohol and lactic acid (the main acid found in milk and even soy sauce), ethyl lactate is both environmentally benign and safe enough to serve as an approved food additive. Naturally occurring and fully biodegradable, this substitute is now economically feasible enough to replace many of the world’s most toxic and volatile solvents. Here, we will explain why you should consider making the switch to ethyl lactate for the betterment of your business, your employee health, and the wellbeing of the world.

Safe

With proper ventilation and protective clothing, ethyl lactate solvent blends are much safer alternatives for your employees. Non-toxic and non-carcinogenic, ethyl lactate has been determined as safe for use in cosmetics by the Cosmetic Ingredient Review Assessments and even as a flavor additive too as an FCC Natural Grade Product.

While improper use can result in irritation of the eyes, ethyl lactate does not come with the reproductive toxicity and immunotoxicity found with the traditional solvents used. Ethyl lactate is not listed on California’s Proposition 65, which requires businesses to provide warnings about chemicals which cause cancer, birth defects, or other reproductive harm.

Biodegradable

The safety benefits of ethyl lactate do not end with your workers. This helpful ingredient can also help keep our planet and environments safe. 100 percent biodegradable, ethyl lactate solvents have no environmentally hazardous ingredients, and are listed on the Environmental Protection Agency’s List 4A, which recognizes these products as safe for use in all pesticide products. In short, there are a whole slew of environmental benefits you can expect to reap upon integration.

Affordable

Originally, ethyl lactate was so expensive to produce that it simply was not an economical option for many businesses. However, that has since changed. Engineers have been able to reduce the cost of manufacturing ethyl lactate solvent blends, making it just as cheap as many of the solvents it is capable of replacing. If potential increased costs have been preventing you from making the switch, you no longer face that obstacle. Today, many tons of solvents have already been replaced with ethyl lactate alternatives, and that number is set to increase further as more businesses make the switch.

Make the Switch to Better Solvents with Vertec

Increased safety standards for employees and the environment, improved effectiveness, and all at the same cost you already pay – there is much about ethyl lactate to enjoy. At Vertec Biosolvents , we want to help you make the switch to ethyl lactate and ethyl lactate solvent blends in the simplest and most cost-effective way possible.

You can learn more about our line of ethyl lactate products by visiting our website or contact our team directly for further information. We will be happy to help you make the right purchase for your needs or learn more about any of our high-powered, bio-solvent options. In either case, we look forward to communicating further.

Tips on How to Remove Graffiti with Bio-Based Products

Tue, 08 Dec 2020 16:49:23 GMT

Brick, concrete, cars, glass, and other surfaces are all prone to graffiti. As a result, there is always a need for graffiti removal. Even during the height of the Roman Empire, graffiti was a problem, and the modern world is no different. Found in every modern city across the world, governments, non-profits, property owners, and other orga nizations spend hund reds of thousands of dollars on graffiti removal each year. But is there a safe, cost-effective way we can help remove graffiti and clean up the streets around our beloved cities? In this blog, Vertec BioSolvents explores three of the most effective methods for removing graffiti. Read on to learn more:

Pressure Washing Graffiti

Although pressure washing is a commonly used technique for removing graffiti from various surfaces, it is far from the most effective. Despite its popularity, it comes with several drawbacks that make it less effective compared to alternative methods. One of the primary concerns with pressure washing is its excessive water consumption, which can lead to wastage, especially when dealing with graffiti created using durable and resistant paints.

When graffiti vandals use tough paints, pressure washing might not completely eliminate the graffiti, resulting in the need for multiple attempts. Each additional round of pressure washing not only wastes more water but also increases the risk of causing damage to the underlying surface. Delicate surfaces like historical buildings, monuments, or sensitive materials may be particularly vulnerable to this method.

Furthermore, pressure washing can lead to the dispersion of paint particles and contaminants into the environment. This can cause pollution and contribute to the degradation of surrounding areas, such as nearby soil, water sources, and vegetation. Additionally, the high-pressure water used in this process might cause unintended etching or scarring on some surfaces, further compromising their integrity and appearance. While pressure washing remains a go-to method for many graffiti removal contractors due to its familiarity and ease of implementation, there are indeed more effective and eco-friendly alternatives available.

Painting Over Graffiti

Those who are new to graffiti removal may see painting over graffiti as the best course of action. However, anyone who has spent any time doing such probably understands some of the pitfalls associated with this method.

While also widely used, paint tends to peel, bubble, and fade when exposed to the harsh elements of the outdoors, where most graffiti is found. What’s left over after this happens is a mess which many may see as even worse than the original graffiti work. To make the cover-up last, multiple coats and continuous maintenance must be used. Unfortunately, this may be one of the worst methods of graffiti removal available to clean up crews.

Chemical Removal

Chemical removal has recently undergone scrutiny due to concerns about environmental impact , damage to surfaces, and worker safety. While these are all true of many traditional chemical removal processes, there are safe bio solvent options which can be extremely effective while simultaneously negating many, if not all, of the negative impacts associated with traditional chemical removal of graffiti.

For example, VertecBio™ Gold is a biodegradable corn and soybean derived solvent used to remove spray paint and ink from all types of surfaces. Easily rinsed away with water and with a low volatility, this safe solvent alternative product is perhaps the best option available on the market for the removal of graffiti, ink, and more. It is completely safe, non-toxic, and non-carcinogenic, making it the ideal solution for both worker safety and environmental protections.

How to Remove Graffiti with Vertec Biosolvents BioBased Products

At Vertec, our unwavering commitment lies in sustainable solvent technology, where we create products that not only surpass their petrochemical counterparts in safety but also excel in performance. We firmly believe that being "environmentally friendly" and "high performing" can go hand in hand, and our goal is to revolutionize the industry with each bio-based formulated product like ethyl lactate, d-limonene, soy methyl ester, or ethanol. We are dedicated to providing solutions that are both safe and effective, ensuring your graffiti removal needs are met efficiently.

If you are in search of a safer and more effective solution for graffiti removal, look no further than Vertec's Biosolvents . Our team is ready to assist you in finding the best product for your specific application. Contact us today for more information!

Vertec BioSolvents' Astounding Discovery in Sanitization with Biosolvent Formulation!

Wed, 23 Sep 2020 19:43:49 GMT

Article also featured on Food Safety Strategies as well as Special Chem .

A biosolvent formulation that cleanses microbial contamination from surfaces provides bactericidal activity (i.e., kills bacteria) and also bacteriostatic activity (i.e., prevents regrowth) even after dilution with water! These are the findings from recent tests conducted at an independent, certified laboratory. Many cleaners and sanitizers have one or two of these properties, but none are known to have all three.

Many species of bacteria were tested that included known food pathogens such as Salmonella and Listeria, the eighteen recommended species by the FDA for sanitization certification and several others. For all of them the bactericidal activity was greater than 99.99% kill and the bacteriostatic activity i.e. the ability to prevent regrowth was seen even at ten-fold dilution with water! This demonstrates Persistence!

The biosolvent formulation contains no antibiotics, biocides, or pharmaceuticals. All the raw materials are commonly used in foods and cosmetic formulations. Dr. Rathin Datta, Vertec’s Chairman and one of the inventors said that, “In my four decades of experience in bioscience and biotechnology, I have never seen nor heard of all three activities existing together in a single formulation”.

George “Skip” Laubach, Vertec’s President and COO adds:

These novel discoveries are protected by several issued patents and several patents are pending.

One of Vertec’s customers has commercialized a hand sanitizer based on the formulation. This FDA approved product not only gives excellent sanitization but also outstanding hand feel and skin conditioning.

Vertec has several very promising applications in the consumer wellness and personal care areas and the company has completed several trials with excellent results.

Several other applications as a final cleaning and sanitization step in food, meat and seed processing industries have shown excellent results. Vertec is eager to work with major players in these industries.

Dr. Rathin Datta is a renowned chemical engineer with more than 45 years of experience in developing and commercializing process and product technologies for both established and emerging companies. He has won major awards in recognition of his work in industrial and environmental biotechnology.

Mr. George “Skip” Laubach has over 25 years of experience as a market and product development executive in specialty chemical industries. He joined Vertec as President and COO in 2015.

Vertec BioSolvents, Inc.

Vertec BioSolvents Inc. is a technology, manufacturing and marketing company dedicated to providing biobased, renewable alternatives to petroleum-based solvents. It is a business dedicated to “Green” chemistry solutions to a multitude of applications. The company manufactures and sells biosolvents and blends based on five major ingredients – ethyl lactate, ethyl alcohol, ethyl acetate, fatty acid methyl esters (soy and coconut methyl esters) and d-limonene (citrus terpenes) for a variety of specialty applications in industrial, food, agricultural and personal care markets. The company has intellectual property for these blends and applications and trademarked brand names for its products.

5 Reasons Why Bio-Based Solvents Are Worth the Investment

Tue, 22 Sep 2020 19:51:53 GMT

Recently, the demand for sustainable solvents has increased rapidly for several interesting applications. Paints and coatings are the most popular, accounting for 40% of the global green solvent market. However, there are still those who are hesitant to switch to bio-based solvents. Made from beets, sugars, corn, soybeans, and other products, bio-based solvents act as a replacement for petroleum-based solvents . In addition to working as effectively as their oil-based counterparts, bio-based solvents are also much safer to humans and the environment. Before you click away, you should know the five additional benefits to working with green chemistry alternatives. Let’s explore them together:

1.) Bio-Based Solvents are Highly Effective

There are many great bio-based solvents currently on the market. One of the most powerful solvent products is Ethyl lactate . Due to its high boiling point, low vapor pressure, and low surface tension, this highly powerful solvent is ideal for many tasks. Formulations containing Ethyl lactate are perfect for coating wood, polystyrene, and metals. Additionally, they work as incredibly effective paint strippers and graffiti removers. Many Ethyl Lactate Manufacturers are also helping businesses replace toxic solvents with their bio-based version.

Experts in the industry value the cleaning power of other bio-based solvents as well. They can dissolve a wide range of polyurethane resins and are also highly effective at removing greases, oils, adhesives, and solid fuels.

In total, bio-based solvents are highly valuable to the industry as they have eliminated the need for harmful chlorinated solvents and other harmful solvents by working safely and effectively.

2.) Bio-Based Solvents Do Not Release the Same High Numbers of Volatile Organic Compounds During Manufacturing

Petroleum-based solvents regularly release large amounts of harmful organic compounds into the atmosphere during manufacturing. Not only are these compounds harmful to the environment, they can also be toxic to the people who work with them or live near where they are being used. As a safer alternative, bio-based solvents again prove there is no better solution. Bio-based solvents release a smaller output of volatile organic compounds, making them safer for the environment and all those who live and work around it.

3.) Bio-Based Solvents are Biodegradable

Bio-based solvents are biodegradable. In the chemical manufacturing industry, this is an extremely important indicator of overall quality.

For example, the inorganic insecticide DDT (which was banned by the US in 1972) has a half-life of up to 15 years in soil and 150 years in aquatic environments. Once that chemical is applied, it negatively impacts every aspect of the surrounding environment for many years, destroying local ecosystems and increasing the risk of people contracting health issues.

Bio-based solvent alternatives are quickly decomposed by bacteria and other living organisms. As a result, bio-based solvents are broken down into non-harmful components, making them a much more sustainable and wiser choice. In fact, bio-based solvents are used at soil remediation sites to assist in cleaning contaminated soil.

4.) Bio-Based Solvents Increase Worker Safety

People who work with your solvents are an important part of any business. Not only do you care about them as employees, but you care about them as people. Therefore, they deserve to be protected and work in a safe environment. Unfortunately, some petroleum-based products are harmful to people who work with them regularly. The importance of protecting your workers from the very real dangers of working with harmful oil-based solvents cannot be overstated.

5.) Bio-Based Solvents: The Environmentally Friendly Option

Bio-based solvents are non-corrosive, show no links to causing cancer, are not listed on California Proposition 65, will not negatively impact the ozone layer of our atmosphere, and are non-HAPS and not SARA 313 listed. Essentially, bio-based solvents are:

Noncorrosive
Noncarcinogenic
Nonozone-depleting

All of which contribute to them being one of the most environmentally friendly options on the market.

Switch to Bio-Based Solvents with Vertec

At Vertec BioSolvents , we emphasize technology and sustainability to create bio-based solvents designed to outperform their petrochemical counterparts. We can help you incorporate bio-based solvents into your existing formulations to reduce your impact on the environment while never sacrificing quality.

If you’d like to talk with our team about the options available to you, you can either call us at 630.960.0600 , or fill out our online contact form . In either case, we look forward to speaking with you and helping you experience the many benefits of working with bio-based solvents.

Vertec BioSolvents Featured in Illinois Soybean Association Journal

Tue, 28 Mar 2017 19:54:43 GMT

See Article

Vertec BioSolvents listed in Products Finishing Magazine

Tue, 01 Nov 2016 20:08:24 GMT

http://www.pfonline.com/suppliers/vertec

Independent Test Report Ranks VertecBio Paint Line Flush Cleaners As Top Performers, Most Economical

Sun, 20 Jul 2014 20:15:28 GMT

Independent Test Report Ranks VertecBio™ Paint Line Flush Cleaners As Top Performers, Most Economical

(Downers Grove, IL) An independent technical report prepared for the U.S. Air Force by NCI Information Systems, Inc. ranked two bio-based solvents by Vertec BioSolvents™, Inc.—VertecBio™ Citrus and VertecBio Gold™ -- as the best materials for paint line cleaning performance.

The study first evaluated solvent products for paint gun cleaning. Thirty-three commercially available paint gun cleaners were selected. Through a screening test that involved physical characteristics, a subsequent test for cleaning performance and field testing at paint shops located at four Air Force bases, three products emerged as the best paint cleaners: VertecBio™ Citrus, VertecBio™ Gold and a product that contained glycol ethers and NMP, both considered hazardous.

The best seven paint gun cleaners were also evaluated as paint line cleaners. VertecBio™ Citrus and VertecBio™ Gold were rated as the top two materials for paint line flushing and considered to be the most economical.

Testing and Criteria For Evaluation

The purpose of the project, according to the report, was "to provide a definitive evaluation for determining the optimum choice of solvents best suited to Air Force requirements that can improve the environmental compliance in painting operations." Criteria for screening the products included low vapor pressure, low or no volatile organic compounds (VOCs), low odor, low toxicity and high flash point. Performance was based on the material’s ability to remove common coatings used by the Air Force. The materials were rated three ways: their ability to remove paint—was there a residual film; the ease of paint removal; and the characteristics of the cleaning material, such as odor, disposal requirements, supplemental cleaning and special equipment.

"We are very pleased with the results of this independent study. It has confirmed our own laboratory results and field results from our customers," said Jim Opre, president of Vertec BioSolvents™, Inc.

VertecBioTM Citrus

Combining heavy-duty cleaning with a pleasant citrus fragrance, VertecBio Citrus green solvent is effective on most polyurethanes, enamels, epoxies and UV curable coatings. It is also an excellent wipe solvent for cleaning without leaving a greasy residue. VertecBio Citrus is 100% biodegradable, non—ozone depleting, non-carcinogenic and non-corrosive. It is an EPA-approved SNAP (Significant New Alternative Policy Program) solvent and it does not contain hazardous air pollutants (HAPs) or global warming compounds.

VertecBio™ Gold

A corn and soybean derived solvent, VertecBio™ Gold also meets the toughest health, safety and environmental regulations. It does not require costly surfactants and there are no greasy residues common to most methyl soyate cleaners. It has low VOC, low vapor pressure, a flash point above 140 F, a high boiling point and high solvency power for removing resins, polymers and dyes. It also provides excellent lubricity, penetration and metal wetting characteristics.

For more details on the Final Technical Report of the paint line flush and paint gun cleaner evaluation, or for more information on Vertec Bio™ Citrus or VertecBio™ Gold, contact us at 630-960-0600 or visit us at www.vertecbiosolvents.com

Vertec BioSolvents™ is a Downers Grove, Ill based manufacturer of bio-based solvents worldwide.

Vertec BioSolvents, Inc. Introduces BioBased DLR to Replace Costly d-Limonene

Fri, 15 Feb 2013 21:19:51 GMT

Vertec BioSolvents, Inc is excited to announce its new DLR blend, a low cost and environmentally friendly replacement for d-limonene. Biobased DLR has been formulated to have similar physical properties to that of d-limonene to be used in many applications at a fraction of the cost of traditional d-limonene.

VertecBio™ DLR is a biobased replacement for d-limonene made from green, carbon neutral, sustainable chemistry that is biodegradable. It is an EPA approved SNAP solvent that contains no HAPS, and no environmentally hazardous chemicals. It is a completely safe, non-toxic and non carcinogenic alternative to high priced d-limonene.

For additional information on VertecBio™ DLR, contact Jerry Vasek at (630) 960-0600 or visit www.vertecbiosolvents.com .

ABOUT Vertec BioSolvents, Inc. - Vertec BioSolvents Inc. is a unique technology and manufacturing company dedicated to providing bio-based, renewable resource alternatives to petroleum-based solvents, a business dedicated to "Green" chemistry. The company manufactures custom blends of biosolvents based primarily on four major ingredients – ethyl lactate, fatty acid methyl esters (soy methyl esters), natural terpines and ethanol for a variety of specialty applications in industrial and agricultural markets.

vertec-design-v1

Safe Benzene Substitutes for Chemical Formulations

What Are the Best Alternatives to Benzene?

Why Replace Benzene?

Key Criteria for Evaluating Benzene Alternatives

Common Traditional Benzene Replacement Solvents

Toluene

Xylene (Mixed Isomers)

Cyclohexane

Heptane and Other Aliphatic Hydrocarbons

Oxygenated Solvents (Alcohols, Esters, Ketones)

The Limitations of Traditional Benzene Alternatives

Bio-Based Benzene Alternatives: A Safer, High-Performance Approach

Vertec BioSolvents as an Alternative to Benzene

Industrial Applications for Vertec’s Benzene Alternatives

Formulations (Coatings, Inks, Adhesives)

Industrial Cleaning and Degreasing

Process and Reaction Media

How to Replace Benzene with Vertec Bio-Based Solvents

Methyl Ethyl Ketone (MEK) Substitute That's Safer and More Effective

Why Companies Are Searching for a MEK Substitute

Common MEK Replacements and How They Compare

Acetone

Methyl Isobutyl Ketone (MIBK)

Glycol Ethers & Specialty Solvents

The Challenge with Traditional MEK Replacements

VertecBio™ ELSOL® KTR1: Lower Toxicity, Eco-Friendly MEK Substitute

Industrial Applications for VertecBio™ ELSOL® KTR1

Cleaning & Degreasing

Surface Preparation

Paints, Coatings & Thinning

Resins, Inks, and Adhesives Formulations

How to Switch from MEK to Vertec BioSolvents

Methylene Chloride (DCM) Alternatives: Safer Options for Your Applications

What Is Methylene Chloride (DCM) and What Is It Used For?

Is Methylene Chloride Banned? Understanding the EPA TSCA Final Rule

The Essential Move to a Methylene Chloride Substitute Solvent

Why Traditional "Drop-In" Replacements Often Fail

Introducing Vertec BioSolvents: The Green Solution to the DCM Ban

VertecBio Gold®: The Heavy-Duty Stripping Powerhouse ﻿

ELSOL® Series: High-Performance Drop-In Replacements

Performance Without Compromise: The Vertec Bio-Based Advantage

How to Switch from DCM to Vertec BioSolvents

Ethyl Acetate Solvent: Bio-Based Green Alternative for Industrial Applications

What is Ethyl Acetate (EA) and Why Is It a Formulator’s Staple?

The Essential Move to an Ethyl Acetate Green Solvent

Introducing Bio-Based Ethyl Acetate: Performance Without Compromise

Applications for Integrating Bio Ethyl Acetate

Partnering for Innovation in BioSolvents

Replacing Acetone: Safe, Non-Toxic Acetone Alternatives to Meet Your Needs

Why Do I Need to Replace Acetone?

Negative Health Concerns & Toxicity

Flammability and Storage Risks

Operational Hassles and Compliance

Safer Alternatives to Acetone for Industrial Applications

Methyl Acetate

Bio-Based Solvent: VertecBio™ ELSOL® AR

Usage and Environmental Benefits

Additional Alternatives for Acetone

How to Choose the Right Acetone Substitute for Your Application

Vertec BioSolvents: Superior Performance, Sustainable Technology

VertecBio™ ELSOL® AR

Solvent Users Look to Replace NMP Solvents

Why Solvent Users are Looking to Replace N-Methylpyrrolidone (NMP)

Health Risks

Short-Term Acute Exposure

Long-Term Chronic Exposure

Safety Concerns

Regulatory Scrutiny

Economic Benefits of Switching from NMP

Are Other Groups Also Trying to Phase Out NMP?

Bio-Based Solvents as an NMP Alternative

Vertec Bio ELSOL NMPR

Vertec Bio ELSOL NMPRx3

Vertec Bio Solvents – Helping You Replace NMP and More

Propylene Glycol Methyl Ether Acetate: Applications, Effects, and Alternatives

What is Propylene Glycol Methyl Ether Acetate?

Uses and Applications of Propylene Glycol Methyl Ether Acetate

Health and Safety Risks of PGMEA Exposure

Environmental and Regulatory Considerations

VertecBio Gold®: The Heavy-Duty Stripping Powerhouse

Biodegradable Plastics (PLA, PHA)

Bio-Based Adhesives

Applications of Sustainable Adhesives

Construction

Automotive

Electronics

Benefits

Vertec BioSolvents’ Role in Sustainable Adhesive Formulations

How Vertec BioSolvents Empowers Sustainable Rubber Manufacturing

The Future of Bio-Based Synthetic Rubbers