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2-Furfuryl Alcohol

    • Product Name 2-Furfuryl Alcohol
    • Alias 2-(Hydroxymethyl)furan
    • Einecs 202-626-1
    • 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

    620266

    CAS_Number 98-00-0
    Molecular_Formula C5H6O2
    Molecular_Weight 98.10 g/mol
    IUPAC_Name Furan-2-ylmethanol
    Appearance Colorless to pale yellow liquid
    Boiling_Point 171-172 °C
    Melting_Point -31 °C
    Density 1.129 g/cm³ at 25 °C
    Solubility_in_Water Miscible
    Flash_Point 65 °C (closed cup)
    Vapor_Pressure 0.41 mmHg at 25 °C
    Odor Mild, alcoholic, sweet

    As an accredited 2-Furfuryl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Furfuryl Alcohol is packaged in a 25-liter high-density polyethylene drum, tightly sealed with hazard labeling and handling instructions.
    Shipping 2-Furfuryl alcohol should be shipped in tightly sealed containers, protected from light, heat, and moisture. It is classified as a hazardous material and must adhere to relevant regulations (e.g., DOT, IMDG, IATA). Ensure proper labeling and documentation. Use appropriate protective packaging to prevent leaks or spills during transit.
    Storage 2-Furfuryl Alcohol should be stored in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep it tightly sealed in its original container, and protect it from moisture and incompatible substances such as oxidizing agents and acids. Always store away from food and drink, and ensure proper labeling for safety compliance.
    Application of 2-Furfuryl Alcohol

    Applications of 2-Furfuryl Alcohol in Industrial Manufacturing

    2-Furfuryl Alcohol plays a critical role as a reactive intermediate and processing aid across several demanding chemical sectors. As a specialized manufacturer, we supply high-purity grades directly for precise downstream integration in industries requiring rigorous adherence to regulatory and technical protocols. Detailed below are key application tracks where our product drives production value and efficiency.

    1. Foundry Resin Production for Sand Casting

    Foundry companies rely on 2-Furfuryl Alcohol primarily for synthesizing furan-based resins utilized in sand casting mold and core fabrication. This raw material undergoes acid-catalyzed condensation with furfural during resin manufacture, conferring superior dimensional strength, thermal resistance, and minimal gas evolution during metal pouring. Strict batch-to-batch quality assurance ensures resin stability, controlled viscosity, and reproducible curing properties. Downstream, these resins support the automotive and heavy equipment sectors with improved casting yields.

    Industry compliance standards

    • ISO 9001:2015 Quality Management for foundry chemicals
    • OECD Environment, Health and Safety Guidelines (for process handling)
    • ASTM E2349 Standard for Industrial Hygiene in metal casting
    • OSHA Hazard Communication Standard (29 CFR 1910.1200) for safe handling

    Typical usage ratio

    • 15%–35% by weight in furan resin synthesis, adjusted by core/mold application and required mechanical strength

    Downstream process integration

    • Furfuryl alcohol is introduced during resin pre-condensation, reacted with furfural under controlled acidity and temperature, followed by solvent removal and stabilization before resin shipment

    Final product types

    • Pre-cured furan resin binders for foundry mold production
    • Sand cores for cylinder blocks, cylinder heads, and brake parts
    • Precision engineering castings for pump housings and gearboxes

    2. Corrosion-Resistant Resin Manufacture for Industrial Equipment

    Producers of chemical equipment lining and storage tanks incorporate furan resins derived from 2-Furfuryl Alcohol into composite laminates and coatings. These resins provide resistance against aggressive media like acids, alkalis, and organic solvents at high temperatures. Formulators carefully balance the input ratio and catalyst selection to control polymer structure and crosslink density, guaranteeing impermeability and durability. Stringent in-process controls secure final product performance for critical containment infrastructure.

    Industry compliance standards

    • EN 13121: GRP tanks and vessels for use above ground
    • ASTM C582: Specification for contact-molded reinforced thermosetting resin chemical-resistant linings
    • RoHS, REACH registration for European market
    • ISO 14001: Environmental management during production

    Typical usage ratio

    • 30%–45% by weight in corrosion-resistant furan resin composites, with formulation adjusted based on the end-use aggressiveness

    Downstream process integration

    • Resin synthesis occurs via acid-catalyzed polymerization, after which laminated layers are applied to woven glass or carbon fiber; curing proceeds in situ on tank or pipe molds to create seamless chemical barriers

    Final product types

    • Acid storage tanks for mineral processing
    • Chemical processing and waste treatment pipelines
    • Corrosion-resistant coating for pharmaceutical and food processing vats

    3. Synthesis of Pharmaceutical Intermediates

    Chemical synthesis plants use 2-Furfuryl Alcohol for manufacturing several furan derivatives that serve as scaffolds in APIs (Active Pharmaceutical Ingredients). Under tightly controlled batch processing, it undergoes hydrogenation, halogenation, or alkylation tailored to produce compounds essential to antibacterial, antifungal, and anti-inflammatory drug production. Full traceability and compliance with GMP directives ensure pharmaceutical safety and batch reproducibility for regulated export markets.

    Industry compliance standards

    • ICH Q7/WHO GMP for Active Pharmaceutical Ingredients
    • Ph. Eur. or USP monographs for relevant intermediates
    • REACH and GHS labeling for export
    • ISO/IEC 17025 for in-process analytical testing

    Typical usage ratio

    • 5%–20% by molar basis per synthetic batch, depending on intermediate and process yield

    Downstream process integration

    • Introduced as the starting furan ring in multi-step chemical syntheses, such as through catalytic reduction or acylation; intermediates then undergo isolation, purification, and further derivatization in isolation units

    Final product types

    • 5-hydroxymethylfurfural (HMF) for new drug discovery
    • Synthetic building blocks for cardiovascular and antineoplastic drugs
    • Intermediates for veterinary and crop protection APIs

    4. Wood Adhesive and Impregnation Resins

    Manufacturers in the engineered wood sector utilize furan-based adhesives and impregnation systems derived from 2-Furfuryl Alcohol for applications like plywood, laminated veneer lumber, and outdoor joinery. Formulation technicians adjust the reactant ratios based on intended moisture resistance and mechanical properties, ensuring deep fiber penetration and crosslinking during hot-pressing. Final boards exhibit high durability, fungal resistance, and dimensional stability, even in harsh climates or in marine construction.

    Industry compliance standards

    • EN 301: Adhesives for load-bearing timber structures
    • CARB ATCM and E1 (EN 13986) for formaldehyde emission in panel products
    • ISO 9001/14001 for quality and environmental management
    • EN 350: Durability of wood and wood-based products

    Typical usage ratio

    • 10%–25% by dry weight in adhesive resins; system tailored based on wood permeability and end-use requirements

    Downstream process integration

    • Reacted with aldehydes to form furan resin adhesives, integrated into veneer or fiber mat impregnation lines, and cured under pressure and elevated temperature in press cycles for panel consolidation

    Final product types

    • Weather-resistant plywood panels
    • Exterior-grade laminated beams
    • Marine and decking boards with extended service life

    5. Synthesis of Chemical Intermediates for Agrochemicals

    Agrochemical producers employ 2-Furfuryl Alcohol as an essential building block in the synthesis of furan-based intermediates, which are further functionalized for use in insecticides and herbicides. High purity and controlled reactivity enable selective substitution and catalytic reactions, supporting scale-up and downstream process economics. Plants monitor every stage for compliance with regional chemical control registries and environmental discharge permits.

    Industry compliance standards

    • FAO/WHO specifications for pesticide raw materials
    • ISO 9001:2015 for agrochemical synthesis QA/QC
    • REACH/CLP compliance for EU market exports
    • Chemical registration under China’s MEE Order 12 or US EPA TSCA Inventory

    Typical usage ratio

    • 5%–18% by molar input in target agro-intermediate pathways, adjusted to overall desired throughput

    Downstream process integration

    • Feeds into furan ring formation and functionalization stages, typically via catalytic oxidation or Friedel-Crafts substitution; followed by extraction and purification units prior to formulation into active compounds

    Final product types

    • Synthetic intermediates for pyrethroid insecticides
    • Building blocks for selective herbicides
    • Crop protection formulation precursors

    6. Production of Solvents and Plasticizer Additives

    Specialty chemical manufacturers process 2-Furfuryl Alcohol as a precursor for producing furfuryl-derived specialty solvents and environmentally friendlier plasticizers. Through selective hydrogenation, etherification or esterification, various downstream additives are created that support paint, coatings, and plastics producers in regulatory-driven markets. Plants maintain constant purity checks and control side-product formation to meet both application and safety thresholds.

    Industry compliance standards

    • OECD Guidelines for safety of industrial chemicals
    • TSCA Inventory for the United States (EPA)
    • ISO 9001 certification for production processes
    • EU REACH registration and downstream user guidance

    Typical usage ratio

    • 12%–28% by batch or as specified by targeted solvent/plasticizer specification

    Downstream process integration

    • Furfuryl alcohol enters as the primary feed for hydrogenation or transesterification; intermediates then purified and blended into lubrication oils or incorporated as part of the formulation for plastic films and coatings

    Final product types

    • Furan-based solvents for cleaning or formulation
    • Flexible and biodegradable plasticizer additives
    • Industrial-grade lubricants
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    Certification & Compliance
    More Introduction

    2-Furfuryl Alcohol: Practical Insights from a Chemical Manufacturer

    Understanding 2-Furfuryl Alcohol from a Manufacturer's Bench

    In the world of specialty chemicals, providers shuffle brochures for products they don’t actually make. As a manufacturer, our relationship with 2-furfuryl alcohol runs deeper than packing barrels and quoting specs. The story starts years back with raw furan sources, crafted into robust, reliable alcohols for industries that do not gamble on quality.

    2-Furfuryl alcohol carries a CAS number of 98-00-0 and appears in chemical records as 2-(Hydroxymethyl)furan. In our workshops, batches roll out as colorless or slightly yellow liquids, the surface shimmering with the faint aroma that hints at its furan origin. A typical lot runs with a purity ≥ 99%, boiled at around 170°C, density near 1.13 g/cm3 at 20°C. We oversee its journey from furfural distillation to the final polishing, aiming for clarity, consistency, and traceability in every produced drum.

    Physical Traits Matter in Real Use

    Industrial users keep a close eye on moisture, acidity, and color because these tiny details creep into final products and processes. In metal casting, for example, the material plays a direct role in binder systems. Low water content means sturdy, predictable cores and molds. 2-furfuryl alcohol’s structure—its furan ring and hydroxymethyl group—makes it distinct from generic alcohols like ethanol or propanol. Customers rely on its reactive potential, which triggers efficient polymerization under catalytic conditions, yielding resins that outclass weaker, cheaper binders where heat resistance and mechanical stability count.

    It’s not just foundries that pay attention. Producers of synthetic resins, plastics, adhesives, paints, and pharmaceuticals reach for 2-furfuryl alcohol when common solvents fall short of performance demands. Unlike simple solvents, this chemical melds into polymer matrices, serving both as a building block and a medium. This dual purpose creates tougher end products, more effective adhesives, and more versatile coatings.

    Consistency: A Promise Backed by Data

    Anyone ordering raw chemicals knows the risks that come with off-the-shelf sourcing. Product recalls, halted production lines, and expensive troubleshooting stem from unpredictable impurity levels, fluctuating acidity, and shifting moisture content. Our approach blends automation with good old-fashioned technical know-how. Every step from crude furan extraction to final filtering faces repeat instrument checks—gas chromatography guarantees purity, Karl Fischer titration confirms water levels. What reaches the customer reflects the strict parameters we accept for our own internal applications.

    Comparison with other alcohols highlights where 2-furfuryl alcohol excels. Ethanol and methanol act mainly as solvents or precursors. Their lower boiling points, simpler molecular makeup, and lack of reactive side groups sideline them in polymer chemistry. Isopropanol and butanol work well for cleaning and process flushing but lack the furan ring’s chemical activity. Our experience proves time and again that nothing in the lower alcohol group fits the same industrial niche as 2-furfuryl alcohol—especially when the application calls for accelerated curing and hardening in furan-based resins.

    Applications on the Manufacturing Floor

    In our shops, we’ve used 2-furfuryl alcohol extensively in the foundry sector. Mixed with furfural, it forms the backbone for resin binders that cement sand into high-integrity casting molds. The combination stands up to extreme pour temperatures and resists collapse even with aggressive cooling. Techs appreciate the mechanical strength, resistance to expansion, and smooth mold finish. Critically, products don’t crumble after exposure to molten metal, cutting down on waste and rework. That reliability is why most modern foundries stick with binder systems derived from furfuryl alcohol, despite the emergence of numerous chemical alternatives.

    Beyond cast metals, we have supplied 2-furfuryl alcohol for synthetic resin lines, where the focus shifts to final product quality. In these processes, the alcohol’s dual role—both as monomer and reactive diluent—opens new doors for resin manufacturers looking to balance viscosity, reactivity, and durability in their finished goods. This comes out clearly in thermosetting phenolic resins, where 2-furfuryl alcohol improves cure rates, reduces residual monomer content, and yields a tougher, more heat-resistant resin matrix.

    On the pharmaceutical front, it rarely makes headlines as a direct drug ingredient. Instead, its role lies in organic synthesis and reaction chemistry. Whether acting as a meaningful intermediate or as a reducing agent, its furan structure supports ring-opening and aromatic substitution reactions not possible with linear-chain alcohols.

    We also serve clients in the agricultural chemical field. Here, 2-furfuryl alcohol can build up actives for pesticides, fungicides, and selective herbicides, where its chemical stability helps manage shelf-life and compatibility. Some flavor and fragrance houses accept our food-grade variants, provided we document and verify purity, trace metals, and residuals—again, a demand that circles back to hands-on producer integrity.

    Health, Safety, and Handling Knowledge from the Shop Floor

    Experience teaches that purity and safe handling go hand in hand. 2-Furfuryl alcohol never feels like a benign lab solvent. It’s not known for high volatility at room temperature, but careless exposure can irritate skin, eyes, and respiratory passages. Regular workers know the slight burn of a small spill or a whiff near an open drum. We supply detailed material handling guides, but what ultimately keeps operators safe is clear labeling, good ventilation, and properly fitted gear.

    Facilities that use the chemical on production lines stick to closed systems wherever possible to reduce airborne levels. Routine scrubber maintenance and employee training prevent accidental exposure during transfer or mixer charging. No matter how skilled the handler, casual shortcuts aren’t an option. There’s history here: cases of overexposure during large-scale blending led to industrywide tightening of permissible exposure limits and a redesign of airflow paths in blending halls.

    We actively monitor regulatory developments in Europe, North America, and Asia. Each market may set slightly different guidelines for personal exposure and residue limits, especially in sensitive applications. As manufacturers, our technical dossiers support these requirements with real-world data—from batch traceability logs to Fourier-transform infrared spectroscopy (FTIR) scans that prove identity and purity. No one does this for compliance alone; strict internal standards cut down uncertainty, build customer trust, and lower long-term costs associated with product failures or regulatory recalls.

    Why Manufacturers Stand Apart: Dealing with Uncertainty

    The direct view of manufacturing exposes risks and solutions invisible to traders and brokers. Feedstock interruptions, variable crop yields, and sudden transport bottlenecks force daily problem-solving. Over the past decade, weather events and crop blights in furan-rich regions have squeezed furfural supplies more than once. We keep robust supply networks and on-site stockpiling strategies, drawing from decades of relationships with agricultural processors. Planning like this pulls us through market spikes. It also helps us keep pricing grounded, with less volatility than short-term spot markets.

    Customers often ask why their 2-furfuryl alcohol from brokers smells off or shows haze. Nine times out of ten, it’s a function of sloppy fractional distillation, old storage tanks, or extended storage in leaky drums under fluctuating temperatures. From where we stand, every batch faces routine odor and clarity screening on top of instrument-based purity checks. If a lot doesn’t pass—if it even carries the wrong color tinge—it returns to refining rather than reaching a client. Our shipments run in container tanks or ISO drums, chosen for lining integrity. This step preserves product quality for months, allows safe handling, and preserves purity until use.

    Differences Matter: 2-Furfuryl Alcohol versus Market Substitutes

    On the technical front, substituting 2-furfuryl alcohol with other polyhydric alcohols or even with similar furan derivatives always leads to challenges. End-users in resin and adhesive production find that alternatives lose their punch when pushed to higher curing temperatures or when bond strength under cycling loads becomes critical. Diol-based alcohols tend to plasticize polymer matrices. Simple alcohols evaporate too quickly or lack the backbone for furan-catalyzed ring closure, capping how hard and heat-resistant the final polymer becomes.

    Chemically, 2-furfuryl alcohol’s five-membered ring with a methylol side group packs both rigidity and reactivity. It promotes cross-linking in furfuryl-based resins, allowing tight, strong bonding points that resist breakdown under heat and pressure. Substitute alcohols, lacking the same resonance structure, underperform in binding efficiency, especially in sand cores, high-performance insulation, and advanced composite applications. As a production team, we have run side-by-side pilot trials for major synthetic resin makers. Their evaluation panels routinely select the batches prepared with authentic 2-furfuryl alcohol for tensile strength, compression performance, and environmental stress crack resistance.

    These technical differences escape many traders and third-party suppliers. Their focus sits on price and “good enough” quality. Yet in the field—where machinery, worker safety, and customer output are at stake—the differences can cost time, money, and production credibility.

    Troubleshooting and Problem Solving in the Field

    Our experience with end users teaches that subtle shifts in chemical grade influence downstream results. A rise in acidity, even by a narrow margin, leads to slowdowns and stuck mixers in foundry binder systems. Slightly increased water content sneaks in through careless storage, and end molds show mismatched expansion rates or rare soft spots. These aren’t hypothetical; these are problems we address for real customers who need root-cause diagnostics and replacement batches on short notice.

    Our technical support field team revises process conditions, offers operator training, and collects more frequent sampling. When polymer resin batches fail spec, lab teams pull retained samples and run fresh reactivity checks, measuring free formaldehyde, color, viscosity, and cross-link density. Our engineers step into resin lines, review temperature profiles, and adjust catalyst dosing. These multi-day site visits carry costs but protect partnerships.

    Innovation and Ongoing Development

    Manufacturing 2-furfuryl alcohol today looks nothing like small-scale runs from decades back. The drive for sustainability, lower emissions, and energy efficiency has forced continual investment. Our teams modify distillation columns to cut energy loads and water use. Waste minimization comes not only from better by-product recovery but also from trimming atmospheric emissions during furfural conversion and alcohol formation.

    Field data from customer tests pushes us to pursue ultra-high-purity variants for electronic-grade resins. We also respond to market calls for food-contact or pharmaceutical intermediate grades backed by multi-level documentation, including certificate of analysis (COA), residual solvent analysis, and metal trace checks using atomic absorption spectroscopy.

    Environmental compliance brings its own set of challenges. We work with local authorities to handle flammable and hazardous waste responsibly, investing in monitored incineration and wastewater treatment. Our operations prioritize worker exposure monitoring—continuously updated through wearable sensors on staff in blending halls and drum filling rooms. 2-Furfuryl alcohol may never achieve “green chemical” fame, but every incremental improvement counts for safety, regulatory stability, and customer confidence.

    Quality Isn’t Accidental: Perspectives from Production

    Many end users never see the stepwise care put into making reliable 2-furfuryl alcohol. Continuous column operation and real-time analytical controls have tilted the scale: what used to take days of batch scrutiny now runs at commercial scale, with each drum backed by full batch records, chromatograms, and titration runs.

    Real experience, not just theoretical knowledge, leads us to careful documentation—chain of custody all the way back to raw feedstock. Transiting from furfural to distilled, stabilized alcohols, our teams keep close watch on catalytic residues, atmospheric vent stacks, and temperature points, ensuring every batch lines up to the tight standards customers expect. When problems surface—a faint haze in a receiving tank, a spike in free acidity—investigators trace the lot through every process checkpoint, digging into reactor settings, filtration rates, and transit times. This forensic approach may slow down next-day shipments, but the produced result beats any generic substitute.

    Long-Term Partnerships Build Trust

    We know that many of our customers have their own purchasing departments, some focused on price, others on consistent quality and service. As manufacturers, our concern sits squarely on the last two. Foundries and resin companies who source directly from producers seldom need to troubleshoot mystery problems caused by hidden adulterants or mismatched grades. Repeat buyers get more than product—they gain access to technical teams, documented shipment histories, and a partner able to explain subtle grade shifts, storage guidelines, and application-specific use cases. Problems become shared problems, usually solved before they reach a crisis point.

    Research and development partners return year after year for custom modifications—higher or lower water content, reduced acidity, or tailored purity for unique end-use requirements. There are no mystery additives or unlabeled side products; everything that enters the drum lands on the certificate, with analytical runs marked for that specific batch.

    Long-standing commitments flow both ways. Regular reviews with downstream users shape our production schedules and test priorities. Input from coating formulators, resin makers, and core shop managers drives process improvement initiatives, which feed back into plant upgrades and enhanced product grades.

    The Road Ahead: Navigating Regulation and Demand

    2-Furfuryl alcohol’s continued relevance rests on two main flows: pressure from regulatory authorities to tighten purity, emissions, and permissible exposure levels, and rising customer demand for high-performance materials that withstand more wear, heat, and chemical attack. Staying ahead means continual investment, both in plant upgrades and in regulatory expertise.

    Global shifts—especially Europe’s continued focus on safe chemical handling and Asia’s transition toward higher-quality insulative and casting products—keep the product central in high-value markets. Staying closely involved with consortiums on chemical safety, ISO working groups, and local environmental commissions offers our operational staff new tools to predict regulation rather than simply react to it.

    Summary: Why Direct Sourcing from Manufacturers Adds Value

    2-Furfuryl alcohol has proven irreplaceable across several technical fields, from metal casting and synthetic resin production to specialty coatings and reaction chemistry. Unlike commodity alcohols or furan substitutes, it offers unmatched hardening, heat resistance, and bond stability, drawing these properties from a tightly monitored, high-purity manufacturing process.

    Field failures—whether in resin hardening, mold stability, or product purity—teach repeated lessons: the quality and consistency only come from upstream control, attentiveness to storage, and ongoing technical partnership. These steps rarely make glossy product brochures. Yet for specialists tasked with keeping production smooth and output reliable, knowing the chemical’s path from furan feedstock through hands-on manufacturing to final application adds peace of mind, higher efficiency, and fewer troubleshooting headaches.

    In chemical supply, there are shortcuts and there is workmanship. Every lot of 2-furfuryl alcohol carries the fingerprint of its maker, and those fingerprints add up to reliability customers measure, batch after batch, job after job.