|
HS Code |
699192 |
| Name | Tetrahydrofurfuryl Alcohol |
| Chemical Formula | C5H10O2 |
| Molecular Weight | 102.13 g/mol |
| Appearance | Colorless liquid |
| Odor | Mild, alcohol-like |
| Boiling Point | 178°C |
| Melting Point | -63°C |
| Density | 1.053 g/cm3 at 20°C |
| Solubility In Water | Miscible |
| Flash Point | 74°C (closed cup) |
| Refractive Index | 1.449 at 20°C |
| Cas Number | 97-99-4 |
As an accredited Tetrahydrofurfuryl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tetrahydrofurfuryl Alcohol is packaged in a 200-liter blue HDPE drum with a secure screw cap and clear hazard labeling. |
| Container Loading (20′ FCL) | Tetrahydrofurfuryl Alcohol is typically loaded in 200 kg drums; a 20′ FCL (full container load) holds about 80 drums. |
| Shipping | Tetrahydrofurfuryl Alcohol is typically shipped in tightly sealed drums or containers to prevent leakage and contamination. It should be stored in a cool, well-ventilated area away from heat, sparks, and open flames. During transportation, compatibility with other chemicals must be considered, and handling requirements outlined by relevant regulations should be strictly followed. |
| Storage | Tetrahydrofurfuryl alcohol should be stored in tightly closed containers, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Protect from moisture and direct sunlight. Use corrosion-resistant materials for storage and ensure proper labeling to avoid accidental misuse or mixing. Follow all local regulations for hazardous chemical storage. |
| Shelf Life | Tetrahydrofurfuryl Alcohol typically has a shelf life of 2 years when stored in tightly sealed containers under cool, dry conditions. |
|
Purity 99%: Tetrahydrofurfuryl Alcohol Purity 99% is used in pharmaceutical synthesis, where it ensures high reaction yield and product purity. Low Viscosity: Tetrahydrofurfuryl Alcohol Low Viscosity is used in industrial cleaning formulations, where it facilitates rapid penetration and effective residue removal. High Boiling Point: Tetrahydrofurfuryl Alcohol High Boiling Point is used in polymer processing, where it enhances solvent retention and uniform polymer dissolution. Water Miscibility: Tetrahydrofurfuryl Alcohol Water Miscibility is used in agrochemical formulations, where it ensures stable emulsification and homogeneous distribution of active ingredients. Molecular Weight 116.16 g/mol: Tetrahydrofurfuryl Alcohol Molecular Weight 116.16 g/mol is used in resin manufacturing, where it contributes to consistent cross-linking and improved material hardness. Thermal Stability 180°C: Tetrahydrofurfuryl Alcohol Thermal Stability 180°C is used in specialty coatings, where it prevents degradation under high temperature curing processes. Flash Point 74°C: Tetrahydrofurfuryl Alcohol Flash Point 74°C is used in ink production, where it reduces evaporation losses and improves print consistency. Low Odor Grade: Tetrahydrofurfuryl Alcohol Low Odor Grade is used in personal care product formulations, where it enhances end-user comfort and broadens product acceptability. Hydroxyl Value 965 mg KOH/g: Tetrahydrofurfuryl Alcohol Hydroxyl Value 965 mg KOH/g is used in polyurethane systems, where it optimizes reactivity and mechanical strength of foams. Stability pH 4-9: Tetrahydrofurfuryl Alcohol Stability pH 4-9 is used in textile dyeing applications, where it provides color fastness and process reliability across variable pH conditions. |
Competitive Tetrahydrofurfuryl Alcohol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615371019725 or mail to sales7@bouling-chem.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: sales7@bouling-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Tetrahydrofurfuryl Alcohol, known throughout the plant as THFA, comes from decades inside the chemical industry and a long relationship with biomass feedstocks. Each batch stems from a continuous process that takes furfural—a substance we source from renewable agricultural waste—and brings it through hydrogenation to reach a stable, colorless liquid with a mild scent. We consistently manufacture industrial grade THFA at a purity of at least 99%, holding tight controls on moisture content and metal traces to suit the needs of industrial users. Deliveries typically go out in drum and bulk liquid tanker format, with each shipment batch tested in-house by gas chromatography and moisture analyzers to ensure clean, dry product.
THFA stands out among solvents on the production floor partly because of its solvency range. The way it handles polar and nonpolar substances matters for many of our downstream partners. Unlike simple alcohols, THFA dissolves resins, dyes, cellulose ethers, and natural gums with equal skill. This performance comes from the oxygen atom in its five-membered ring and its secondary alcohol group. We see our customers using it to formulate cleaning agents, resin strippers, pinhole-free coatings, wire enamel removers, and specialty inks.
Manufacturing THFA puts us at the intersection of chemical safety, process reliability, and feedstock unpredictability. In the early years, keeping batch purity above 99% proved challenging during rainy seasons when crop residue coming from furfural plants included more water and trace organics. These issues impacted downstream reactions with customers reporting foaming and color shifts in their applications. Our technical staff rebuilt feed filtration units, reworked reactor pressure settings, and changed up our vacuum driers to pull out extra moisture. Satisfaction rates on purity and long-term storage stability climbed, and repeat complaints from industrial coatings customers dropped by nearly half between 2010 and 2015.
Solving disposal and environmental impact questions also shaped our approach. Spills of THFA, if not cleaned up quick, can leave a lingering earthy odor and cause problems downstream in solvent recovery lines. Factory workers remember times when improper drum storage meant vapor buildup could corrode valves. Each round of maintenance taught us the value of stainless steel lines, periodic vapor recovery checks, and proper drum labeling for site safety.
Seeing how THFA interacts in real industrial environments provides perspective that textbook reviews lack. In resin manufacturing, operators note how THFA’s moderate evaporation rate means it doesn’t dry too quickly or too slowly—allowing coatings to form uniform layers on wires, printed boards, and glass. Teams working in solvent-based adhesives appreciate how the alcohol group supports polar bond separation, so the glue doesn't gel inside tanks. In ink manufacturing, THFA acts as a carrier for pigment dispersions while avoiding yellowing over time, helping printers push longer roll cycles without smearing.
Refiners who work with THFA often look for high flash points and low residue formation during distillation. Our product’s boiling range between 175°C and 185°C lets users reclaim much of it by simple vacuum distillation, reducing solvent losses and keeping process lines clear. In custom blending, our field engineers help formulate combinations with glycol ethers or esters based on feedback from application trials, especially where higher solubility outperforms butanol or plain methanol.
As a solvent, THFA holds up well next to other biomass-derived options like furfuryl alcohol, as well as everyday choices from petrochemicals such as cyclohexanol or N-methyl-2-pyrrolidone. Furfuryl alcohol, still common in foundry binders, carries a much sharper odor and far higher toxicity concerns—making THFA more appealing in situations where air handling and lab safety matter. Cyclohexanol does not mix as capably with water or hydrophilic resins, which can lead to problem batches of adhesives and uneven dispersions. N-methyl-2-pyrrolidone, though an effective solvent, faces rising regulatory scrutiny in many regions due to toxicity. Here, THFA supplies a smoother operational experience with easier permitting and fewer worker safety worries.
In chemical reactions, THFA’s structure gives an edge. Its ring offers stability during esterification or alkoxylation cycles, which often lets chemical engineers push process heat and pressure higher than with lighter alcohols. We’ve measured reaction selectivity gains—sometimes up to ten percent in certain catalyst-mediated transformations—using batch records from process partners. This reactivity, coupled with its ability to dissolve both organics and inorganics, has led to more companies adopting THFA when designing pilot plant and commercial-scale runs, even in fields like pharmaceuticals where purity and low byproduct formation are mandatory.
Production teams see orders shift not just in volume but in seasonal demand—inks and coatings require more THFA coming into spring, while resin removers see peaks late in the year. This requires scheduled maintenance of reactors and pipelines. Quick turnaround between production cycles means thorough equipment flushing routines, as even trace contamination from past batches can result in client complaints or on-site plant shutdowns. We run high-purity nitrogen purges and use colorimetric strip tests for water and carbonyl content to spot contamination early.
Shipping and storage issues remain frontline concerns. THFA doesn’t corrode steel rapidly, but we found out the hard way that unlined containers can cause color shift over months of warehousing. Modern tank farms now rely on internal liner coatings and periodic sampling. During transport in hot weather, internal pressure can rise. Our logistics manager worked with local haulers to install pressure-release valves on tanker domes, reducing accidents at unloading bays.
Responsible manufacturing extends beyond gates and pipelines. THFA’s relatively low toxicity compared to its parent furfural doesn’t remove all risk, so personal protective equipment stands mandatory during drumming and transfer operations. Field crews follow spill kits protocols and run handheld vapor meters in tight spaces, observing occupational exposure limits set by regulatory authorities. Our workforce runs monthly safety drills and tracks incident reports, shaping future improvements.
THFA’s agricultural roots mean that many of its supply chain partners come from rural communities. We worked directly with furfural operations in farm districts to boost the reliability and traceability of feedstock supply. By investing in better drying yards and collection bins at the source, we saw a drop in hazardous mold spore transport into our tanks and a measurable uptick in local farmer revenue. Both factors matter, as they feed back into process quality and long-term viability on both sides of the supply chain.
Through decades manufacturing THFA, we track the way new applications redirect demand. Battery and electronics manufacturers now look to THFA for cleaning glass substrates and degreasing high-value parts. Its stable structure avoids etching or fogging, which often derails parts cleaned with harsher solvents. Paint chemists add our THFA into antifouling marine coatings because the solvent supports even binder spreading without breaking paint films down by hydrolysis.
We support research teams developing biobased plastics, where THFA serves as both a solvent and a mild reactant. In leading universities, researchers studying green chemistry use our product to avoid petrochemical solvents in pilot-scale demonstrations of degradable polymers. Large producers in Asia and Europe come to us for their trials, finding that our THFA blends cleanly with recycled feedstocks without adding off-flavors or discoloring engineered products.
Changes in environmental law push us to rethink batch processing and emissions abatement. In some regions, THFA qualifies as a “green” solvent but tightens how we handle effluent and trace residue. Our compliance team monitors discharge from wash-downs and runs closed-loop recovery units to keep air and water impact minimal. Strong demand from resin and electronics industries keeps us on our toes for both quantity and documentation—each lot runs through a battery of environmental exposure and biodegradation tests.
Cost factors matter just as much as regulation. Process improvements over the last decade allowed us to scale up reactors, shorten distillation cycles, and recover energy from hydrogenation off-gas. These efficiency gains help suppress downstream pricing pressure, keeping our users competitive in markets ranging from specialty manufacturing to construction. By retooling for automation and predictive maintenance, we limit unplanned downtime and shortage events. Every hour gained raises the chance that our product arrives right on time for the next customer run.
Working directly with bulk and specialty users, we value unfiltered feedback on product handling, batch consistency, and side reactions in their lines. If a THFA shipment doesn’t meet a customer's cleaning requirements or leaves a trace impurity, both our lab team and production foremen get involved. From these cases, root causes often point to upstream filtration or temperature shifts during storage. We maintain ongoing dialogue with our largest customers—who together represent thousands of tons of finished goods dependent on reliable THFA—sharing findings on trace impurity management, solvent blend options, and equipment upgrades.
Shifting supply chain realities push innovation. With the world leaning toward renewable chemistry, THFA has attracted interest as a building block in synthetic flavorants and fragrance makers seeking biobased alternatives. We actively partner with customers chasing regulatory compliance or cleaner labels, helping them understand how our THFA delivers comparable solvency power and long-term shelf stability versus legacy petrochemical alcohols.
Plants buying in the thousands of kilograms look at THFA for its performance under real-world conditions—winter storage, variable humidity, heavy-use cycles, and rapid recipe changes. Consistency matters most on their end; they rely on our in-house paperwork, Certificates of Analysis, and historical performance data before accepting deliveries. Our logistics coordinators work around port and rail schedules, controlling for heat and delays in ocean transit. End users appreciate transparency about batch dates and field test data, especially those running tight operational windows.
Users switching to THFA from older solvents typically want hands-on guidance, so our technical team shows up at customer sites to troubleshoot transitions. This includes pilot test runs, materials compatibility reviews, and advice on process retrofits. In the field, teams often swap stories about cellulose solubility in THFA versus performance in safer alternatives. One manufacturer of medical adhesives doubled throughput by switching to THFA blends after finding fewer gel formation incidents at mixing stations.
The nature of biomass supply chains drives risk and opportunity. Global disruptions—storms, droughts, tariffs—raise volatility in furfural feedstock pricing and availability. Our procurement staff work closely with growers and pre-processing plants to keep firm contracts and alternate supply lines open across multiple continents. In years when furfural exports dip, we invest in storage and flexible batch scheduling, rather than running short shipments or cutting corners.
From an operational angle, regulatory agency shifts around what defines “green” or “biobased” force regular audits and equipment upgrades. We cooperate with local offices to conduct third-party audits. Extraction teams balance process efficiency against waste treatment and air emission targets. This ongoing work lowers our long-term risk profile while making traceability easier for our downstream partners who face increasing consumer and governmental scrutiny.
Each production season brings new demands and requirements from both old and new application fields. Automotive coating plants request larger volumes of moisture- and odor-controlled THFA, while electronics and cosmetic manufacturers need finer control over purity specs and trace chemical profiles. Our research group expands analytical checks and advises clients on how slight changes in their formulation processes impact performance when using THFA versus legacy solvents.
Modern chemical manufacturing does not stand still. We constantly review feedback loops between application chemists, warehouse operators, supply chain teams, and the markets that depend on THFA. Data from these channels drives our own investment and process upgrades. Each cycle through the plant teaches more about gas purity, reactor performance, effluent control, and customer needs. Our production line teams remain at the practical edge—working on real-world problems that affect batch quality, safety, and delivery reliability.
Customers at all levels, from small specialty paint shops to multinational resin plants, increasingly prioritize responsible sourcing and lifecycle considerations. Offering THFA at scale, with documented origin and environmental measures, is a responsibility we take seriously. The story of Tetrahydrofurfuryl Alcohol shows how continuous attention, hands-on problem solving, and technical expertise jointly raise product value. We look ahead to future advances, working together with suppliers, regulators, and customers to keep our plants—and their operations—running strong.