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Tetrahydrofurfuryl Methacrylate

    • Product Name Tetrahydrofurfuryl Methacrylate
    • Alias THFMA
    • Einecs 211-090-1
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    894649

    Cas Number 2455-24-5
    Molecular Formula C9H14O3
    Molecular Weight 170.21 g/mol
    Appearance Colorless to pale yellow liquid
    Odor Mild, characteristic
    Density 1.082 g/cm3 (20°C)
    Boiling Point 86°C at 2 mmHg
    Flash Point 100°C (closed cup)
    Refractive Index 1.453–1.457 (20°C)
    Solubility In Water Insoluble
    Purity Typically ≥98%
    Melting Point -30°C

    As an accredited Tetrahydrofurfuryl Methacrylate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Tetrahydrofurfuryl Methacrylate is supplied in a 1-liter amber glass bottle with a poly-seal cap and detailed hazard labeling.
    Shipping Tetrahydrofurfuryl Methacrylate should be shipped in tightly sealed containers to prevent leaks, away from heat, ignition sources, and incompatible materials. The chemical is typically transported as a hazardous material, with proper labeling and documentation in accordance with local, national, and international regulations to ensure safe handling during transit.
    Storage Tetrahydrofurfuryl Methacrylate should be stored in a cool, dry, well-ventilated area, away from heat, ignition sources, and direct sunlight. Keep the container tightly closed and protected from moisture and incompatible substances such as oxidizing agents, acids, and bases. Use only containers made of compatible materials. Store away from food and drink, and follow all relevant local and national regulations.
    Application of Tetrahydrofurfuryl Methacrylate

    Applications of Tetrahydrofurfuryl Methacrylate in Industrial Manufacturing

    Tetrahydrofurfuryl Methacrylate is a specialty monomer valued for its unique balance of hydrophilicity and low volatility. The following sections introduce its established industrial applications, detailing compliance guidelines, mixing ratios, integration practices, and the specific finished products manufactured across diverse downstream industries.

    1. UV-Curable Printing Inks

    Manufacturers of UV-curable printing inks incorporate Tetrahydrofurfuryl Methacrylate to achieve rapid polymerization, improved pigment wetting, and enhanced substrate adhesion. Its hydrophilic character reduces surface tension, improving print definition on non-porous materials such as plastics and metal foils. The monomer also supports low migration formulation for food packaging inks, subject to migration testing and regulatory documentation.

    Industry compliance standards

    • Swiss Ordinance SR 817.023.21 (Printing Inks for Food Contact Materials)
    • EuPIA Guidelines (European Printing Ink Association)
    • FDA 21 CFR 175.300 & 176.170 (food packaging use in the USA)
    • ISO 2846-1:2017 (Color and Transparency of Printing Ink)

    Typical usage ratio

    • 5-15% by weight of total reactive monomers.
    • Adjusted based on polymerization speed, viscosity, and required migration limits.

    Downstream process integration

    • Added directly during ink premix stage before pigment and photoinitiator incorporation.
    • Processed under nitrogen to minimize oxygen inhibition during cure.
    • Final formulation tested for migration and cure completeness.

    Final product types

    • UV-curable flexographic inks
    • Screen printing inks for electronics
    • Offset printing inks for food labels
    • Inkjet inks for flexible packaging

    2. Dental and Medical Device Resins

    Dental and medical device resin formulators use Tetrahydrofurfuryl Methacrylate to obtain higher toughness and hydrolytic stability in light-cure and dual-cure systems. The monomer helps optimize shrinkage, translucency, and bond strength to both ceramic and metal substructures, which are all critical for high-performance dental restoratives, prosthetics, and transparent medical fixtures.

    Industry compliance standards

    • ISO 10993-5:2009 (Biocompatibility Testing)
    • ISO 4049:2019 (Polymer-based Dental Restorative Materials)
    • USP Class VI (Medical Devices Testing)
    • EN 1641:2016 (Dental Base Polymers)

    Typical usage ratio

    • 3-12% by mass among reactive comonomers.
    • Ratios vary with mechanical strength and crosslinking density requirements.

    Downstream process integration

    • Introduced during bulk resin formulation before filler and photo-initiator addition.
    • Mixed under controlled temperature to limit premature polymerization.
    • Vacuum defoaming applied after addition to ensure void-free curing in molding.

    Final product types

    • Light-curing dental filling composites
    • Orthodontic adhesive cements
    • Denture base plates
    • Transparent surgical guide resins

    3. Waterborne Acrylic Surface Coatings

    Industrial waterborne coating manufacturers employ Tetrahydrofurfuryl Methacrylate for its capacity to improve dispersion stability, chemical resistance, and water-spot tolerance in emulsion polymerization. Its structure increases polymer wetting and minimizes flash rust on metal substrates, benefiting automotive and heavy equipment applications exposed to weathering and harsh chemicals.

    Industry compliance standards

    • ASTM D5201-19 (Standard for Waterborne Coatings)
    • ISO 12944-5:2018 (Corrosion Protection of Steel Structures)
    • REACH Annex XVII (Chemicals Usage in Paints)
    • Directive 2004/42/CE (EU VOC Directive)

    Typical usage ratio

    • 3-9% of total monomer content in acrylic latexes.
    • Adjusted for targeted gloss, hardness, and water resistance.

    Downstream process integration

    • Pre-emulsified with surfactants before being added to the aqueous phase in reactor.
    • Polymerized during semi-continuous or batch emulsion processes.
    • Post-polymerization, pH adjusted for optimal stability and application properties.

    Final product types

    • Industrial anticorrosion coatings
    • Automotive refinishes
    • Protective marine paints
    • Architectural exterior waterborne coatings

    4. High-Performance Adhesives and Sealants

    Producers of reactive adhesives and sealant formulations utilize Tetrahydrofurfuryl Methacrylate to increase substrate penetration and final bond strength, especially in demanding metallic and composite assemblies. Its polarity supports strong adhesion to oily or damp surfaces, relevant for electronics potting, assembly lines, and construction joint sealant applications where movement and chemical exposure are concerns.

    Industry compliance standards

    • ISO 4587:2017 (Determin. of Tensile Lap-Shear Strength of Adhesives)
    • ASTM D1002-10 (Metal-to-Metal Bonding by Adhesives)
    • UL 94 (Flame Retardancy for Potting Compounds)
    • REACH Registration (for all monomeric components)

    Typical usage ratio

    • 4-10% of the reactive monomer blend in 1K and 2K systems.
    • Levels adjusted based on target viscosity and open time required by the customer’s application line.

    Downstream process integration

    • Blended with backbone monomers or oligomers post-polymer synthesis.
    • Dispensed prior to initiator stage for thermal or UV-curing grades.
    • Tested for storage stability and application work-life under customer-specific conditions.

    Final product types

    • Structural acrylic adhesives
    • Electrical potting compounds
    • Elastic joint sealants
    • High-performance construction adhesives

    5. Advanced Fiber Reinforced Composites

    Tetrahydrofurfuryl Methacrylate serves as a functional comonomer in the matrix resin formulation for glass and carbon fiber composites. It promotes fiber-matrix interface adhesion and reduces void formation, leading to higher tensile properties and better fatigue performance. This application is crucial in manufacturing lightweight, durable panels for automotive, transportation, and industrial equipment assembly.

    Industry compliance standards

    • ISO 1268-5:2001 (Fiber Reinforced Plastics - Laminate Production)
    • ASTM D3039/D3039M-17 (Tensile Properties of Polymer Matrix Composites)
    • EN 45545-2:2020 (Fire Protection on Railway Vehicles)
    • RoHS Directive 2011/65/EU (Restriction of Hazardous Substances)

    Typical usage ratio

    • 2-7% by weight of the matrix resin formulation.
    • Configured based on required mechanical strength and solvent resistance.

    Downstream process integration

    • Mixed with base polyester or vinyl ester resins before fiber wet-out.
    • Introduced before the initiator to ensure even distribution throughout the matrix.
    • Applied via resin transfer molding (RTM), hand lay-up, or pultrusion processes.

    Final product types

    • Structural composite automotive panels
    • Wind turbine blades
    • Heavy-duty industrial equipment housings
    • High-strength railway interior components
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    Certification & Compliance
    More Introduction

    Tetrahydrofurfuryl Methacrylate: Practical Experience from a Chemical Manufacturer

    Understanding the Role of Tetrahydrofurfuryl Methacrylate in Polymer Chemistry

    Tetrahydrofurfuryl methacrylate, often referred to as THFMA, has found its way into a surprising number of applications over the years. As a manufacturer, we know this molecule inside and out—not just as another catalog item but as a backbone in the formulation labs of adhesives, coatings, and specialty resins. From the shop floor to the development bench, every container of THFMA represents years of process refinement, trial, and repeated feedback from end-users who don’t just want the product—they want it to work within real-world conditions.

    We produce THFMA with a focus on purity, because trace impurities and water content can throw off polymerization reactions downstream. The chemical structure, a fusion of the methacrylate group and a tetrahydrofurfuryl moiety, brings together the well-recognized reactivity of a methacrylate with the flexibility and hydrophilicity of the tetrahydrofuran ring. This balance is key. It shapes the polymer’s glass transition temperature and resilience, which directly impacts how a finished product behaves over years of use.

    Why Manufacturers Turn to THFMA: Real-World Benefits and Choices

    Plenty of acrylic monomers line the shelves, so why reach for THFMA in tough projects? Over the years, customers who build UV-cure ink, dental composites, or specialty coatings keep coming back to THFMA because of how it improves flexibility without ruining hardness or chemical resistance. There’s a unique “give” in the resulting polymer— not rubbery, not brittle, but tough enough for high-performance surfaces and components. From our production lines, we’ve tracked batches sent into anti-corrosion coatings for heavy machinery, 3D-printable resins for intricate parts, and medical device adhesives that need both safety and reliability.

    Some of the technical teams coming by our facilities often point to one sticking point with more common methacrylates like methyl methacrylate or hydroxyethyl methacrylate: these traditional choices fall short on elongation and resistance to impact. Once, a customer told us honestly that THFMA let them stop balancing tricky copolymer ratios— the inherent flexibility from tetrahydrofurfuryl just solved the problem without constant tweaking. As manufacturers ourselves, we feel this emphasis on real usage. By fine-tuning distillation columns and keeping our purification stages tight, we’ve made it easier to supply a consistently high-quality THFMA that polymerizes without drama, even at industrial scale.

    The Manufacturing Perspective: What Goes Into Reliable THFMA

    Producing THFMA calls for tight control from the ground up. Our engineers track oxygen levels, feedstock purity, and reactor pressure religiously during each batch. Small slip-ups early on can trigger side reactions that waste raw materials and create headaches for the polymer scientist expecting pure, stable monomer. For those who build UV-curable systems, a trace of peroxide or unwanted solvent can end up with blistered or yellowed films— quality issues that never surface in the glossy marketing brochures, but keep manufacturers awake at night.

    We’ve spent years shifting from glass-lined reactors to more modern stainless steel units, not just for throughput but to limit contamination and downtime. Modern purification setups let us cap water content and acid number, so researchers get reproducible results. It’s strange: after making thousands of metric tons, the difference between a great and a mediocre batch often comes down to who pays attention at each stage, from raw input to final tank cleaning. Our experience shows that long-term customers value controlled specs and on-time shipments far more than sheer price. Nobody wants to rerun a production line because microgels or unexpected crosslinking ruin a batch of adhesive.

    Comparing THFMA to Other Methacrylates: Details from the Bench and the Plant

    Much of the discussion around THFMA focuses on how it stacks up beside contenders like methyl methacrylate (MMA), butyl methacrylate (BMA), or hydroxyethyl methacrylate (HEMA). We see little overlap in performance when it comes to flexibility and water compatibility. MMA offers fast cure and hardness, often landing in basic acrylic glass or signage. BMA brings some flexibility, but not the kind that survives impact or flexing across a decade of weathering. HEMA, with its hydroxyl group, brings hydrophilicity but at the price of hydrolytic instability and sometimes problematic odor.

    The tetrahydrofurfuryl group on THFMA pulls together the best of both worlds: it offers water compatibility without dangerous swelling or rapid deterioration when exposed to cleaning chemicals, bodily fluids, or humid environments. Our clients in the medical arena mention reduced leachable content and better edge resilience in dental and orthopedic materials. Ink formulators appreciate low odor and easy pigment dispersion. The viscosity of THFMA lands well above that of MMA or BMA, occupying a comfortable range that makes it easy to handle without splashing or excessive evaporation. This viscosity also helps manage flow and leveling in coatings—no sag, no pinholes.

    From our vantage point, THFMA forms copolymers without much coaxing; formulators do not wrestle with phase separation or unanticipated brittleness. There’s a reason why batch runs for inks or medical adhesives have migrated from more common monomers toward THFMA: reliability under day-to-day stresses, batch-to-batch consistency, and a modest learning curve for new staff in the compounding area.

    Key Technical Features Our Customers Rely On

    Years of making THFMA make the performance details obvious. High molecular weight and the semi-cyclic ether structure mean low volatility, so you see less smell and safer handling compared to lighter, more volatile acrylates. In hot-cure or UV-cure systems, THFMA brings its own strengths by moderating reaction heat and giving time to achieve thorough cures. Toughness appears right out of the mold, reducing the tendency to crack or chip after repeated use or thermal cycling.

    Where water resistance counts, the tetrahydrofuran moiety does plenty of heavy lifting. We’ve watched customers run boiling water immersion tests and see low weight gain and negligible swelling— that’s not something you’ll see with old-fashioned MMA or pure HEMA copolymers. Because the molecule packs more carbon and oxygen than simple methacrylates, it stands up to acid, alkali, and all but the most aggressive solvents, which matters in industrial floorings, labware, and specialty construction adhesives.

    Lessons and Feedback from the Field

    We spend less time touting THFMA in brochures and more time supporting people facing real manufacturing puzzles. A Texas-based coatings firm told us their previous supplier’s acrylic lost slip resistance after just a few months outside. Switching to our THFMA-based system kept skid values, even after a year of abuse from forklifts and humidity. In the world of stereolithography (SLA) 3D printing, engineers came back after switching to THFMA-containing resins and told us they achieved detailed parts with less warping and lower rates of print failure. This doesn’t come as a surprise. The thick, inert backbone of THFMA, combined with radical reactivity on the methacrylate group, locks in performance for high resolution parts that survive post-curing cycles without losing sharpness.

    Medical adhesives take another approach: end-users have to ensure that bonds stay flexible under continual stress, while not leaching toxic byproducts or detergents into human tissues. Constant communication with quality teams lets us adjust acid number, water content, and even trace odorants so their THFMA-based adhesives pass regulatory audits and shelf-life testing. People sometimes ask to push specifications tightly for unique polymer backbones, and we’re set up to pilot those tweaks— changing distillation curves or holding times, filtering residue, and checking every drum before release.

    Solving Real-World Manufacturing Challenges with THFMA

    Manufacturing has changed since we broke ground on our first plant, but some challenges never go away. Reduced emissions in processing plants matter not just for compliance but for everyone working shifts next to the tanks. We reformulated catalysts and re-sealed reactors so our THFMA keeps air levels low, and our teams run vapor recovery as a matter of course. This discipline pays off: every drum leaves with a sharper product and fewer surprises in downstream blending.

    One edge THFMA offers over older acrylates: cleaner conversion in batch and continuous process conditions. Over the years, we’ve dialed in reaction times and inhibitor systems. Our analytics team caught early clues of unwanted side products and built new checks into the workflow— no more fields reports about sticky bottoms or odd gels at the drumhead. It sounds minor, but a more forgiving monomer at the production phase saves days across a busy plant.

    How We Approach Safety and Handling Everyday

    Safety stays at the center of every conversation with resin and adhesive formulators. Because of its higher flash point and lower volatility than many acrylates, THFMA is easier to store and ship, and plant crews report fewer complaints about harsh smells or irritation. Still, safety is never taken for granted. Every batch leaves with tight parameters for acid number and inhibitor content, reducing the risks of runaway polymerization, which can turn a shift dangerous in minutes.

    Our operators are trained to handle leaks, spills, and exposure scenarios modeled over years of real incidents—not just textbook procedures. We rotate crews for inspections and work closely with logistics partners to keep transit conditions controlled. While some monomers demand cooled storage, our THFMA makes it through warehousing and distribution in typical indoor environments with no drama or spoilage. Stress-testing our drums and bulk containers became standard practice after early lessons in seal and lining degradation from leftover peroxides, now eliminated by regular, documented sampling along every freight route.

    Environmental Impact: Steps Toward Greener Operations

    As manufacturers, we take our environmental footprint seriously. Over the years, we phased out legacy solvents in purification and shifted to closed-loop recovery, reducing both raw input waste and emissions from vent stacks. By investing in advanced monitoring, we track every liter of solvent and feedstock through our THFMA campaigns, cutting fugitive emissions and lowering downstream burden on wastewater treatment.

    Our labs work to support customers who need low-VOC and “green” products—THFMA gives a genuine path forward. Its high reactivity means formulators add less initiator, leading to fewer leftover chemicals and a lower toxicity profile in finished goods. This makes a real difference in workplace safety for our customers, especially those making products for kids, food contact, or sensitive medical uses.

    We also listen to voices from regulatory meetings and audit teams, ensuring that by aligning specifications and shipment practices to new standards, we help downstream partners achieve easier compliance. By working with supply chain peers, we share best practices in product stewardship, labeling, and waste reduction.

    Supporting Innovation with Reliable THFMA Supply

    Innovation does not thrive on uncertainty. Over time, we’ve seen labs and production floors grind to a halt—not from lack of ideas, but from monomer shipments arriving out of spec, late, or inconsistent in quality. Our operations teams focus on stable supply schedules, responsive customer communication, and forward inventory planning. When commercial teams forecast changes in demand—whether for a new dental material, a breakthrough printable resin, or high-resistance coatings—our planners scale up, smooth bottlenecks, and cut downtime in mixing and polymerization.

    Research and development staff have unique needs: sometimes it’s smaller pilot lots for early testing, other times complete tanker shipments for new production lines. Our logistics and technical support teams understand these pressures: they coordinate samples, track orders, and troubleshoot formulation issues up or downstream. By sharing batch data transparently, we help partners scale ideas from lab to commercial reality, with minimal loss in translation.

    Building Expertise from Production to Application

    Making THFMA at scale means training people to spot tiny shifts in raw material quality, adapting process recipes, and maintaining equipment for peak performance. Many manufacturers overlook how a shift in catalyst supplier or a change in cleaning procedures trickle down to polymerization reproducibility decades down the supply chain. We document every tweak, running long-term stability tests and sending samples to trusted partners for benchmarking. Internally, we reward staff who identify efficiency wins or safety improvements on the line—a culture that finds problems early before they leave the plant.

    On the customer side, we regularly run joint trials to find the best use parameters for THFMA—adjusting initiator ratios, UV lamp intensity, or mixing temperatures—to evolve better performance for coatings, inks, or adhesives. Every success story or failed experiment feeds back into how we tune our process. We don’t lock into fixed mindsets: new application fields surface every year, from push-pull syringes to anti-graffiti coatings, and THFMA continues to adapt. That flexibility, shaped by both molecule and manufacturing, lets end-users push material boundaries without dangerous surprises.

    Why Direct Manufacturing Experience Matters

    As a manufacturer, we’ve learned that many of the most valuable insights into THFMA come not from certificates of analysis but from listening to those who use it. Formulators rarely chase the latest buzzword— they want products that do their job, every batch, every shipment. Reliability, traceability, and honest answers to tough questions count as much as technical specs. We support these needs with thorough documentation, real-time support troubleshooting, and a firm commitment to improve with each feedback cycle.

    Making THFMA at commercial scale showed us how minor impurities in the feed or stray bits of oxygen could spoil a whole run. It taught us to respect every detail, from reactor prep to driver paperwork—a lesson that echoed in customer audits, production standstills, and, sometimes, sleepless nights overseeing off-hour troubleshooting. This diligence is woven into everything, from the way we train operators and design tank farms, to how we support partners when a market shifts or a regulation changes overnight.

    THFMA’s Place in the Modern Marketplace

    Tetrahydrofurfuryl methacrylate sits at a crossroad for those looking to combine durability with chemical versatility. Manufacturers who once used it cautiously in niche medical or electronic applications now see it as an important workhorse for modern formulation chemistry. The push for safer, higher-performing, longer-lasting products has shifted demand toward materials that don’t just make bold claims, but deliver in every batch, under every inspection.

    We’ve noticed this shift in conversations with purchasing managers, operations heads, and product engineers: the right raw material is not just about specs, but about predictable results, easier compliance, and confidence in every barrel. This is where authentic, manufacturer-rooted knowledge of THFMA stands out. We talk openly about what works and where caution is needed— supporting those who depend on us to keep their own promises of performance and safety.

    Supporting Progress in Polymer Science

    What began as a specialty monomer for early high-resistance coatings finds new life as polymer chemistry evolves. Our direct experience proves that close relationships between end users and chemical producers foster true progress. Years of feedback from the people making cutting-edge products sharpened our own approach to purity, batch traceability, and formulation troubleshooting for THFMA. That process is ongoing.

    THFMA continues to open doors for product developers who need toughness balanced against flexibility, water resistance across a range of environments, and repeatability under demanding manufacturing conditions. These aren’t marketing claims—they grow from years of manufacturing, supporting customers, and responding to real problems with practical solutions.

    The journey from raw tetrahydrofurfuryl alcohol and methacrylic acid to that final drum of THFMA can only be meaningful if it solves problems that matter. As a manufacturer, we are committed to being more than a supplier: we stay engaged on the plant floor, in our labs, and with every partner invested in new, high-performance polymers for today and tomorrow.