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HS Code |
961315 |
| Chemical Name | 6-Benzofuranol |
| Molecular Formula | C8H6O2 |
| Molecular Weight | 134.13 g/mol |
| Cas Number | 480-14-6 |
| Iupac Name | 1-benzofuran-6-ol |
| Appearance | Solid, off-white to light yellow |
| Melting Point | 164-166 °C |
| Solubility In Water | Slightly soluble |
| Pubchem Cid | 10209 |
| Synonyms | 6-Hydroxybenzofuran, 6-benzo-furanol |
| Smiles | C1=CC2=C(C=CO2)C=C1O |
| Inchi | InChI=1S/C8H6O2/c9-6-2-1-3-7-4-5-10-8(6)7/h1-5,9H |
| Storage Conditions | Store in a cool, dry place |
As an accredited 6-Benzofuranol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 98%: 6-Benzofuranol with 98% purity is used in pharmaceutical intermediate synthesis, where high yield and reproducibility are achieved. Melting Point 110°C: 6-Benzofuranol with a melting point of 110°C is used in organic crystal engineering, where precise phase transition control is enabled. Molecular Weight 146.15 g/mol: 6-Benzofuranol of molecular weight 146.15 g/mol is used in reference standard development, where analytical accuracy is improved. Stability Temperature 40°C: 6-Benzofuranol stable up to 40°C is used in long-term storage of analytical reagents, where shelf life is extended. Particle Size <50 micron: 6-Benzofuranol with particle size below 50 micron is used in fine chemical formulation, where homogeneity and dissolution rate are optimized. Viscosity Grade Low: 6-Benzofuranol of low viscosity grade is used in polymer modification processes, where efficient blending and processability are enhanced. Water Content ≤0.5%: 6-Benzofuranol with water content not exceeding 0.5% is used in moisture-sensitive catalysis, where degradation risks are minimized. Assay ≥99%: 6-Benzofuranol of assay not less than 99% is used in high-purity laboratory syntheses, where product integrity and downstream purity are ensured. Color Index ≤10 APHA: 6-Benzofuranol with color index less than or equal to 10 APHA is used in optical material manufacturing, where color clarity and transparency are maintained. |
| Packing | 6-Benzofuranol, 25g: Supplied in a sealed amber glass bottle with tamper-evident cap, labeled with hazard pictograms and handling instructions. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for 6-Benzofuranol involves secure packing of drums or containers, ensuring safe, efficient, and compliant international shipment. |
| Shipping | 6-Benzofuranol should be shipped in tightly sealed, chemically resistant containers to prevent moisture absorption and degradation. It must be labeled in accordance with hazardous material regulations and handled by authorized personnel. During transit, it should be protected from heat, light, and incompatible substances, with appropriate documentation for safe and compliant transportation. |
| Storage | 6-Benzofuranol should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from heat and sources of ignition. Protect from direct sunlight and moisture. Keep away from incompatible materials such as oxidizing agents or strong acids. Clearly label the storage container and ensure access is limited to trained personnel using appropriate personal protective equipment. |
| Shelf Life | 6-Benzofuranol typically has a shelf life of 2-3 years when stored in a cool, dry, airtight container, protected from light. |
Competitive 6-Benzofuranol prices that fit your budget—flexible terms and customized quotes for every order.
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Every batch of 6-Benzofuranol that leaves our chemical synthesis line reflects years of hands-on experience with heterocyclic chemistry. We produce this aromatic compound under strict environmental controls because impurities in benzofuran derivatives, especially during scale-up, can cause issues in downstream applications. Our background producing small-molecule aromatics has shown us that consistency in melting range, purity, and trace contaminant levels means more work for the plant chemist, not less. We use a tailored crystallization sequence, which filters out side products from unwanted ring-substitutions. Technicians monitor the reaction at each stage by TLC and then further analyze with NMR and GC-MS. This avoids surprises during scale-up that could set a project back weeks or months.
Few things teach you more than watching a customer run into trouble trying to purify inconsistent material bought through an intermediary. To keep that from happening, we maintain direct oversight at every point along our line. Any 6-Benzofuranol batch has supporting COA records based on HPLC (minimum 98% purity) and water content, since many downstream reactions demand tight control of moisture. As the manufacturer, any callback or question comes to our chemist’s desk, not to a generic help desk. Over the years, we developed in-line drying and closed-system transfer specifically to keep the product below 0.3% moisture during packaging, taking cues from years of resolving customer chromatography headaches that trace back to a moist bottle sitting in a distributor’s warehouse.
For our standard 6-Benzofuranol, product code 6BF-OH-011, lots ship at a minimum assay of 98% by HPLC, with trace solvents under 200 ppm. True consistency in melting point (around 120–124°C) is vital: we saw one instance where a poorly controlled exotherm led another supplier's batch to fuse together, damaging an entire run for our client’s pilot study. Our focus on tight reaction temperature bands and a robust purification protocol guards against these types of fiascoes. Particle sizing is geared to lab-scale and pilot applications—too much dust from over-grinding and you easily trigger static and losses during handling, so we built our sizing steps to balance flow without sacrificing surface area.
Our material’s residue on ignition and heavy metals content beat the specs defined by most major pharmaceutical or fine chemical buyers, because our own regulatory inspections are as demanding as any external audit. Each batch file has a traceable path: from raw benzofuran input confirmed by GC-MS, all the way to final packaging, documented by the production chemist who reconciles every weigh-out.
Most of the 6-Benzofuranol demand we’ve seen comes from advanced pharmaceutical intermediates, material science projects, and specialty dye production. Clients in medicinal chemistry value low cross-contamination, since trace byproducts trigger false positives in bioactivity screens. We learned from a partner lab that even 0.1% side product was enough to stall their entire SAR campaign. This led us to adopt extra purification rounds, which we implemented after direct feedback from our industrial users.
The phenolic hydroxyl on the benzofuran ring opens up versatile reactivity for O-alkylations, esterifications, and coupling reactions. Its solubility profile, especially in polar aprotic solvents, comes from maintaining low byproduct levels: even tiny conjugated impurities alter its solubilization in DMSO and acetonitrile, according to process chemists we’ve worked with in-house. Our clients pointed out that uncontrolled lots forced them to adjust solvent ratios mid-experiment. Having made the compound at both kilo and pilot tonne scales, we found that how you control temperature ramps in the final cyclization makes all the difference in solubility and isolation.
Those in advanced polymer research make functionalized copolymers with our 6-Benzofuranol as a monomeric building block. Here, even a trace of cross-linking impurities ruins synthesis; direct feedback from polymer scientists has helped us prioritize lot-to-lot spectral uniformity, without which reproducibility drops.
Direct manufacturing means we set our schedule based on the long-term needs of our established customers. Bulk orders get scheduled shifts, and any scale-up gets managed with the same team overseeing small lots. Our plant supervisors keep detailed logs, noting any changes in filtration, solvent switch, or reactor configuration. If a client’s formulation shifts, we’re able to tweak particle size or water content before shipping, not after the fact.
Over the years, scale-up has taught us that not all chemistries tolerate the same storage or transport. For 6-Benzofuranol, our airtight, UV-resistant containers prevent discoloration or polymerization—lessons learned after a client once received a sun-yellowed sample from a competitor. Now, ships leaving our facility won’t see the light of day until the client’s ready to use them.
It’s not enough to make a product and send it out the door. Some labs need extra spectral data, or insight on handling protocols to avoid inadvertent oxidation in humid regions. All technical support comes direct from our process team; if something happens, our chemists answer questions, not a distant sales chain. If a client needs a custom specification, we can run early pilot blends and issue tailored certificates. Our plant troubleshooting is shaped by years of fixing issues for real users, such as working through storage or shipping challenges for destination labs outside major city centers.
Many intermediates resemble 6-Benzofuranol: phenol, resorcinol, catechol, or even resorcylic acid structures appear superficially similar. But the fused benzofuran skeleton changes the game completely for many downstream organic syntheses. In coupling chemistry, 6-Benzofuranol behaves differently compared to simple phenols—the aromatic stabilization and electronic effects shift reaction rates and outcomes. We’ve spent years optimizing condensing conditions for this compound, as our users report much higher yields and less tar when using our material compared with open-market phenols, especially for alkyl and aryl ether formations.
Some manufacturers offer benzofuran derivatives high in sulfonate or halide impurities (traces left from intermediate steps); these persist through to the user’s final product and can disrupt bioassays or material properties. We see far lower feedback about assay interference with our product, in large part because we validate our purification against specific end-use cases submitted by our main clients. Our record keeping and batch referencing reach well beyond regulatory minimums, because every kilogram speaks to the reputation we’ve built, not just compliance.
Batch sensory properties matter, too. The texture, color, and slight characteristic aromatic odor of our product have been remarked on by seasoned formulation chemists at several client plants. Small differences like these say a lot: a pale, free-flowing powder rather than a sticky brown mass means better handling, fewer clogged lines, and a quicker weigh-out at the bench.
Those developing new pharmaceutical leads or photovoltaic coatings don’t have time for downtime due to off-spec chemicals. If a supplier as an intermediary provides non-traceable 6-Benzofuranol, months of synthetic work can end up wasted. As a manufacturer, we’ve dealt with issues like regional raw material shortages and global transport disruptions. To ride out these events, we’ve built an inventory buffer and dual-source our essential inputs based on proven analytical standards. Each raw material comes in with a profile run against our master compound library, built over a decade of hands-on development.
Even seemingly minor points, like the choice of grade for the packaging liner, have made a difference. We once had a large shipment returned when a competitor’s liner bled plasticizer into the product, leading to a formal complaint from a major research institution. Since then, we’ve commissioned food-grade, non-leaching liners for all shipments. These details, learned through actual product returns and remediation, reshape every part of our workflow.
Our support extends beyond just delivery. We share knowhow with our clients: whether it’s the right protocol for safe minor recrystallization or blending to a targeted particle size distribution, our team is on hand. This approach springs from years of listening to the often unspoken frustrations of scientists facing unpredictable product quality. Whenever a unique issue crops up, we use it as an occasion to refine our SOPs and scale-up documentation.
Some of our most substantial improvements came out of open-door conversations with plant chemists and R&D teams using our 6-Benzofuranol. We don’t just follow audit feedback — we proactively log and review every customer comment related to solubility, reactivity, and downstream compatibility. One example stands out: a polymer development partner once flagged drifting moisture content, which pushed us to overhaul our drying and in-process monitoring entirely, giving birth to our current low-moisture protocol.
Another major advance was our decision to swap out certain solvents in the final crystallization to reduce the risk for environmentally sensitive markets. We pilot-tested alternatives first at our plant and then scaled them only after in-house and customer QC passed. These hands-on upgrades mean users don’t need to perform their own secondary purifications or worry about unexpected solvent residues interfering with sensitive screens.
By connecting our manufacturing floor directly to the users’ workflow, every incremental change—whether it’s a tweak in final granulation, or an upgrade in packaging—directly reflects the practical input of the industry professionals putting our product to work every day.
Our role as the actual manufacturer puts safety and environmental obligations front and center. All waste streams from 6-Benzofuranol production are chemically neutralized and filtered before release, monitored by third-party audits. Our people receive regular training based on real case histories, not just written procedures. Year after year, these protocols have shown their worth by preventing incidents that could sideline both production and customer safety.
While many fine chemicals get made under less visible oversight, we keep digital records tied to each drum or bottle, linking finished lots with every environmental control measure along the way. If we spot any deviation—whether in the temperature profile or exhaust scrubber readings—our process engineers respond in real time.
From direct experience, there’s no substitute for knowledge gained handling 6-Benzofuranol at bench, pilot, and full-plant scale. You see not just what it is, but how it matters—to custom synthesis groups trying to develop new active ingredients, to QC analysts demanding ultra-stable lots, to researchers who write back when the product works exactly as we said it would. Product stewardship means fixing small problems before they turn into big ones, preventing downstream headaches, and maintaining transparency from batch start to customer delivery.
We know that each kilo of 6-Benzofuranol in a researcher’s hands carries the expectations of real-world results. Every adjustment to our process—each improvement in isolation, packaging, and documentation—loops back from conversations with people who use the product day in, day out. Our perspective as the manufacturer gives us a unique stake in everyone’s success, because those expectations have built not just our reputation, but our entire mode of operation.