|
HS Code |
366061 |
| Chemical Name | Furan |
| Molecular Formula | C4H4O |
| Molecular Weight | 68.07 g/mol |
| Appearance | Colorless, flammable liquid |
| Odor | Ether-like |
| Boiling Point | 31.3°C |
| Melting Point | -85.6°C |
| Density | 0.936 g/cm3 at 20°C |
| Solubility In Water | Infinitely soluble |
| Flash Point | -35°C |
| Vapor Pressure | 534 mmHg at 25°C |
| Cas Number | 110-00-9 |
As an accredited Furan factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Furan is packaged in a 500 mL amber glass bottle with a tightly sealed cap, labeled with hazard symbols and handling instructions. |
| Shipping | Furan should be shipped as a flammable liquid under tightly sealed containers, away from heat, sparks, and open flames. Use DOT-approved containers and label with UN 2389. Ensure proper ventilation during transport and separate from oxidizers and acids. Follow all hazardous material regulations and include safety documentation with the shipment. |
| Storage | Furan should be stored in a tightly sealed container under an inert atmosphere, such as nitrogen or argon, to prevent oxidation and polymerization. Keep it in a cool, dry, well-ventilated area, away from sources of ignition, heat, and incompatible substances like strong oxidizers and acids. Protect from light and moisture, and store separately from food and drink. |
| Purity 99%: Furan purity 99% is used in pharmaceutical synthesis, where improved intermediate compound yield is achieved.Boiling Point 31°C: Furan boiling point 31°C is used in resin manufacturing, where efficient volatilization enhances polymerization control.Molecular Weight 68.07 g/mol: Furan molecular weight 68.07 g/mol is used in specialty chemical production, where predictable reactivity simplifies process optimization.Stability Temperature up to 100°C: Furan stability temperature up to 100°C is used in agrochemical processes, where thermal integrity ensures consistent end-product quality.Density 0.936 g/cm³: Furan density 0.936 g/cm³ is used in electrolyte formulation for lithium batteries, where uniform distribution improves charge transfer efficiency. |
Competitive Furan prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
As a manufacturer deeply involved in the production of furan for years, we find its value cannot be overstated in resin production, pharmaceuticals, and fine chemicals. At our facility, furan synthesis begins with locally sourced agricultural by-products, such as corn cobs or bagasse. After refining the raw materials, we produce furfural, which then passes through a specialized vapor-phase decarbonylation process, yielding high-purity furan. Our standard industrial grade runs at 99.8% purity or better, meeting tight quality specifications essential for high-performance resin and specialty chemical outputs.
The molecular formula of furan, C4H4O, gives it a five-membered aromatic ring structure, with oxygen contributing to its reactivity. We monitor qualities like boiling point consistency, moisture content, and trace metallics. With years of hands-on production, we’ve learned to optimize catalyst life and minimize byproduct formation during synthesis. These efforts improve yield and create a product with stable characteristics, a key request from our regular partners in the resin and pharmaceutical industries.
Furan’s status as an aromatic heterocycle allows it to serve as a reactive intermediate in a variety of syntheses. In phenolic and urea-formaldehyde resin manufacturing, furan enriches crosslink density and enhances both chemical and thermal resistance. Laboratory demand for furan also remains steady, especially for the development of pharmaceuticals and specialty ingredients. Its electron-rich ring enables easy functionalization, streamlining the synthesis of furan-based pharmaceuticals or agrochemicals like maleic anhydride or tetrahydrofuran. Compared to pyrrole and thiophene, furan offers better solubility in many organic solvents, broadening its application window.
Furan is not a commodity product. Familiar chemicals such as benzene or toluene simply fill the role of a solvent or building block, but furan’s reactivity offers far greater design flexibility. When our customers move toward developing innovative resins—especially for corrosion-resistant coatings or foundry applications—they rely on furan’s ability to impart heat stability and chemical resistance to end formulations. By controlling the moisture and maintaining low peroxide levels during packaging, we further protect the integrity of each shipment, avoiding common issues such as polymerization in transit.
In our experience, most large-scale furan consumption lies in furfuryl alcohol production, itself a keystone monomer for furan resins. These resins go into high-performance foundry binders, acid-resistant linings, and specialty adhesives. Furan's use goes beyond only resin production. In pharmaceutical chemistry, it takes the role of a precursor in synthesizing drugs and active intermediates. Some of our partners use furan to generate tetrahydrofuran, which demands high purity; the consistency of their final solvent relies on consistency in our output.
As regulation on renewable sourcing tightens, we see clients shifting away from traditional petrochemicals to biobased intermediates like furan. By leveraging agricultural waste as a feedstock, we minimize lifecycle emissions, which appeals to manufacturers looking to support green chemistry claims. Our furan’s low impurity and reliable supply fit well in such value chains, supporting not only performance but also regulatory and sustainability objectives.
Comparing furan’s chemical behavior to other five-membered heterocycles, several distinctions become apparent. As a manufacturer, we note furan reacts more readily under mild electrophilic conditions than thiophene, requiring less severe catalysts during functionalization. This reduces byproduct formation and helps control reaction exotherms in clients’ processes. Pyrrole, for example, carries a nitrogen atom that shifts both the ring’s electron density and its reactivity profile, complicating certain substitutions. Furan’s oxygen atom brings its own shelf-life challenges—peroxide formation can occur if not stabilized, a risk we control by nitrogen blanketing and regular batch analysis.
Unlike benzene, which delivers impressive chemical stability, furan is much more open to derivatization. Its solubility profile in polar and non-polar solvents is broader, allowing formulators to blend with a greater variety of additives or co-monomers. For adhesives and specialty polymer manufacturers, this flexibility means they can explore a wider set of curing conditions and performance targets.
Producing furan at scale is not a trivial process. Our plant has faced and overcome challenges tied to process control and raw material variability. Any swing in raw furfural purity affects downstream distillation, so we maintain strict incoming quality requirements. Specialized packed columns and fractionating towers allow us to draw furan fractions cleanly. Maintaining low iron levels prevents discoloration, vital where optical clarity in downstream products is needed.
Our operations team is alert to the hazards and management practices required for furan. This compound carries known toxicity, with the potential for vapor exposure and fire hazard. We design every loading, storage, and packaging activity around preventing vapor leaks and minimizing contact exposure. Drum and bulk deliveries ship under nitrogen protection, and real-time monitoring augments worker safety. This kind of careful control fosters trust among buyers in high-purity and pharmaceutical segments.
In regions with high humidity or ambient temperature swings, furan storage conditions become critical. We use double-walled, temperature-monitored tanks and provide guidance on shelf life based on empirical stability data. Our commitment extends beyond the factory gate: we train buyers on how to set up local storage and conduct regular technical exchanges with application engineers at client facilities.
Some foundry resin producers request furan variants with ultra-low moisture, given how even trace water can impact catalysis and resin strength. We meet these orders with parallel drying and filtration steps ahead of packing, using molecular sieves and specialized filtration units. Similarly, our pharmaceutical customers seek reassurance on possible nitrosamine or heavy metal carryover—a concern we address with batch-level analysis and published purity assurances.
Every year, end users discover new ways to harness furan. Research into bio-based composites, for example, counts on furan-derived resins offering a bridge to both renewable content and robust service temperature. In coating and adhesive applications, our clients appreciate furan’s ability to promote cross-linking and block aggressive acids and solvents. Recent case studies demonstrate how furan-derived binders withstand sour gas corrosion, opening new doors in chemical processing.
As a plant operator, we see the broader shift toward sustainable manufacturing intersecting with furan’s biobased origins. Farm waste, once seen as a disposal problem, now powers a circular economy, with every batch of furan reflecting this shift. By documenting cradle-to-gate emissions and supporting full supply chain traceability, we help end users meet consumer and regulatory demands for transparency.
A few years ago, furan production relied entirely on furfural imports from distant sources, with inconsistent qualities driving up costs and uncertainty. Today, we keep a close relationship with local agricultural processors, ensuring both feedstock security and a smaller carbon footprint. By integrating upstream with furfural producers, we control feedstock variability, giving users confidence in long-term supply. For many of our partners looking to secure stable long-term contracts, this aspect matters as much as technical performance.
As pressure rises for greener, lower-impact materials, we support third-party verification for Life Cycle Assessments on our furan batches. Providing traceable, fully documented production records allows resin, polymer, and agrichemical manufacturers to demonstrate compliance with voluntary eco-labeling or government audits. Sustainability is not only about source materials, but about managing waste and side-streams—so heat recovery, closed-loop water management, and byproduct valorization round out our manufacturing approach.
Over years of batch scaling and logistics experience, we have adapted our furan offering to suit multiple packaging modes. Whether shipping in corrosion-resistant steel drums or dedicated tankers, we guard product quality from plant to end user. Packaging always uses nitrogen blanketing to prevent oxidation. Truck or rail shipments require close coordination with certified carriers trained in hazardous chemical handling. Every shipment includes full Certificate of Analysis, matching batch-specific test parameters so that downstream processing can begin with confidence.
In case of transit delays or site-specific storage demands, we consult directly with customers to minimize risks of temperature swing or inadvertent exposure. In select markets, we stage reserve inventory in climate-controlled storage—an extra layer of service that buyers of high-purity, low-impurity furan find beneficial. For specialty applications, we produce tailor-made micro-batches, dialing in pH, color, and trace contaminant specs, all supported by our in-house QC lab for timely turnaround.
Anyone working with furan understands its hazards, yet many only encounter it as a finished ingredient. Our chemical safety teams guide clients in best practices for furan storage, transfer, and waste management. Continuous training and emergency response planning prevent issues; this cooperative approach reduces not only immediate workplace risk but also potential regulatory audits or supply chain interruptions. Keeping open lines of communication, we share updated technical bulletins as new safety or transport regulations emerge.
With increasing emphasis on workplace air monitoring, we offer practical advice and resources for clients on the ground. By drawing on our own incident database and fielding client requests for tailored engineering controls, we have helped many partners implement air monitoring, effective ventilation, and detection solutions at packing and processing sites.
Looking across markets, we see end users expanding beyond established sectors. Bio-based polymer developers, specialty solvent producers, and pharmaceutical innovators all seek reliable furan supply as they break new ground. In advanced materials research, furan chemistry emerges in the search for flame-retardant bioplastics, flexible electronics, and renewable chemical intermediates. The adaptability of furan chemistry supports agile formulation, where manufacturers are pressured to shift features and supply chains with each new customer requirement.
For emerging chemistries, we offer both standard industrial grades and custom-specification furan, responding to requests for unusual stabilizers, unique storage conditions, and detailed impurity reporting. A direct feedback loop with formulation chemists at customer R&D labs has ensured our product fits evolving demands, not just in current projects but as new regulatory and commercial challenges arise.
Global supply networks continue to experience pressure, with logistics, energy, and raw material disruption posing threats to timely delivery. Over years of operation, we have learned that flexibility, transparent sourcing, and advanced planning remain our best defenses. Facility upgrades have expanded batch reactor capacity and introduced in-line purity monitoring, cutting batch lead times and minimizing off-spec output.
For smaller-quantity or pilot-scale buyers, we simplified the ordering process and guarantee small-batch traceability down to each vessel used in synthesis and packaging. This level of granularity allows pharmaceutical and specialty research clients to meet stricter documentation requirements.
As manufacturing and advanced chemistry continue to evolve, reliable access to furan remains a foundation for innovation in multiple value chains. End-users expect not only stable pricing and timely delivery but collaborative engagement—open discussion about process bottlenecks, impurity troubleshooting, and product evolution. Through daily plant operation and years of market feedback, we have built the expertise and infrastructure to keep user goals in focus.
The growing momentum of renewable chemistry, combined with rising technical aspirations in specialty materials and pharmaceuticals, points to continued evolution in both the production and downstream application of furan. Our hands-on approach—controlling feedstock, managing quality, supporting safe handling, and adapting to new applications—ensures users have the confidence to build, experiment, and scale up with a secure supply of a truly versatile building block.