| HS Code | 984934 |
| Chemical Name | Phenol |
| Molecular Formula | C6H6O |
| Molar Mass | 94.11 g/mol |
| Appearance | Colorless to white crystalline solid |
| Odor | Sweet, tar-like odor |
| Melting Point | 40.5 °C |
| Boiling Point | 181.7 °C |
| Density | 1.07 g/cm³ |
| Solubility In Water | 8.3 g/100 mL (20 °C) |
| Pka | 9.99 |
| Cas Number | 108-95-2 |
| Flash Point | 79 °C |
| Autoignition Temperature | 715 °C |
| Vapor Pressure | 0.4 mmHg (20 °C) |
| Iupac Name | Phenol |
As an accredited Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phenol is packaged in a 500 mL amber glass bottle with a tightly sealed cap, bearing hazard labels and handling instructions. |
| Shipping | Phenol must be shipped in tightly sealed, corrosion-resistant containers, such as steel drums or glass bottles, clearly labeled as a hazardous material. It should be stored upright and separated from oxidizers, acids, and foodstuffs. Transport must comply with regulations for toxic and corrosive substances, ensuring proper ventilation and emergency response protocols. |
| Storage | Phenol should be stored in tightly closed containers, away from heat and direct sunlight, in a cool, dry, well-ventilated area. Use containers made of glass or certain plastics since phenol can corrode some metals. Label containers clearly and keep them away from incompatible substances such as strong oxidizers and acids. Always store phenol in dedicated chemical storage spaces equipped with spill containment measures. |
Competitive Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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Phenol, also recognized by its chemical designation C6H5OH, carries a weighty presence in manufacturing sectors worldwide. At our chemical plant, we have worked closely with this compound for decades. Our daily efforts channel the practical value of phenol to polymer producers, pharmaceutical companies, resin manufacturers, agricultural innovators, and many specialized sectors. Each ton leaving our facility reflects years of experience with purification, handling, and customization to meet long-term partners' increasing demands.
Our phenol production lines focus on meeting commercial and industrial grades, setting a benchmark for purity and consistent composition. Most commonly, our customers ask for material above 99.95% purity by weight. Control of trace elements—such as sulfur, iron, and water—remains a routine priority. We keep water content well below critical thresholds to avoid system corrosion and process disruption further down customer lines. Bulk phenol generally ships in solid, crystalline form during colder months, while in warmer climates and seasons, the liquid state demands insulated tankers.
Color matters. Customers frequently check product clarity and tint. Our batch outputs appear colorless or faintly tinted depending on transportation time and exposure. Customers in the electronic resin and polycarbonate field appreciate batches that withstand detailed colorimetric testing. Any slip in appearance can complicate downstream reactions or final product visuals.
Our plant prefers to designate standard batches using internal model codes to ensure traceability and batch-level recall. Product labels list the manufacturing date, purity, and trace constituents. Larger buyers sometimes request additional analytical data, and our lab provides gas chromatography, mass spectrometry, and spectrophotometric records upon request.
Few chemicals match phenol in versatility and longevity. Our process engineers regularly field questions from both legacy buyers and new industrial developers about threading phenol into their manufacturing chains. Most volumes in our annual output support the production of bisphenol-A (BPA). Companies convert phenol and acetone into BPA in seamless, high-throughput syntheses, then fashion BPA into polycarbonate plastics and epoxy resins. Those resins end up in laptops, building materials, safety glass, coatings for canned foods, and water bottles. The whole chain starts at the phenol reactor.
In alkylphenol and phenolic resin production, our plant's supply helps shape adhesive formulations used in plywood, engineered construction materials, and insulation board. These applications don't tolerate fluctuations in feedstock composition. Over the years, we have refined our finishing steps to meet the unique parameters these sectors demand.
As an intermediate for certain pharmaceuticals, phenol brings both challenges and rewards. Some of our contract partners synthesize antiseptics, oral anesthetics, and preservatives. Here, stringent control of metal content and air exposure matters during product handling. Trace contaminants may compromise biologically active ingredients, prompting us to audit process streams routinely. We have built an understanding of which subtle composition drift triggers regulatory issues for clients seeking international approvals.
Agrochemical producers also source phenol to create herbicides and pesticides that protect food production systems. The chemical interacts predictably with chlorinating agents or other organic substrates, leading to reliable output of target actives. Our teams maintain tailored storage and shipping logistics to keep turnover fresh—particularly important where phenol's oxidative sensitivity would affect final crop protection product qualities.
Smaller volumes find their way into dyes, lubricants, and as raw materials for certain antioxidants. Plant operators count on the low water content and tight metal impurity control from our material to avoid side reactions and discoloration in specialty processes.
Clients regularly weigh the choice between phenol and alternative aromatic compounds. Compared to cresols, for example, phenol delivers a simpler synthesis profile and easier recovery from industrial effluent streams. Its straightforward reactivity with formaldehyde gives predictable yields for novolac and resol resin types, so most resin makers prefer pure phenol batches over cresol blends, especially where product certification requires a tight monomer profile.
Some facilities consider naphthol or aniline for analogous functions. Based on years of pilot projects and troubleshooting, our technical teams observe that phenol offers a balanced reactivity that reduces the likelihood of runaway polymerization. Its melting point and volatility also suit bulk-handling in moderate climates, cutting down the risk of dangerous vapor build-up in average processing environments.
In terms of storage, phenol stands out. Chlorinated aromatics might demand specialized linings or vapor recovery due to aggression against standard tank construction materials. Phenol—while still hazardous—does not challenge industry standard storage tank coatings nearly as aggressively as some other aromatic chemicals. Our long-term partners rarely report compatibility issues with stainless steel or high-grade polymer linings if routine maintenance protocols are followed.
In the market for antimicrobial agents, customers sometimes evaluate phenol against modern alternatives. Over the past decade, we have seen quaternary ammonium compounds and alcoholic solutions edge out phenol in consumer-facing applications. Still, for certain medical and laboratory uses, phenol retains a long proven record of broad-spectrum action, especially where precise formulation and documentation of feedstock sources are required.
Compared with less reactive aromatic alcohols, phenol features an acidity that promotes ring substitution reactions—crucial for chemists designing high-yield syntheses. In places like Asia and Europe, large-scale buyers appreciate savings in catalyst, time, and utility costs when switching from less reactive feedstocks to high-purity phenol.
Managing large volumes of phenol involves more than chemistry. Bulk deliveries introduce challenges: phenol reacts quickly with air and light, so our teams emphasize nitrogen blanketing and light-excluding coatings. We keep our operations neat, checking on bulk tanks with resistance thermometers and antistatic grounding. Direct communication with transport partners avoids the temperature swings that might drive phenol into a dangerous vapor phase. Drivers and handlers learn to respect the unpredictability of spilled phenol—hands-on training trumps paperwork every time.
Within our facility, working with phenol means constant vigilance about leaks and handling protocols. Small drips can result in pungent vapor clouds, and chronic low-level exposure risks worker safety. Plant engineers have installed redundant containment and real-time vapor detectors. We have invested in personal protective equipment, and our process techs run improved ventilation as part of every shift. Less experienced teams sometimes underestimate how quickly phenol spreads, but our long-serving operators have internalized risk controls and troubleshoot mechanical seals regularly.
Local authorities expect reliable environmental safeguards. In earlier years, our compliance team noticed sporadic releases during valve maintenance led to odor complaints. Over time, we've added more active carbon filtration, double seals, and transparent record keeping so our neighbors trust that our bulk phenol operations align with public expectations.
Transportation presents its share of risk. Tanker cleaning between loads prevents buildup of polymeric residues. We have developed checklists to ensure no trace product remains in return loads. On rare occasions, regional rail shipments required creative insulation—solid phenol in a winter climate can bridge and clog unloading equipment. Drawing on field experience, our logistics teams favor direct containment transfer at customer sites to cut down handling, spillage, and re-melting time.
Modern phenol markets fluctuate with the petrochemical sector. As crude prices shift or refining strategies change, the availability of benzene (the main phenol precursor) drops or surges. We track raw benzene supply daily, as it influences both cost and process scheduling. Past supply disruptions—such as plant turnarounds or geopolitical tension—highlight the need for storage contingency and flexible purchasing.
Customers sometimes explore bio-based phenol. Our technical team has reviewed pilot-scale efforts using lignin from paper pulping. Still, the global commercial supply largely relies on petroleum benzene via the cumene process. We keep an open line with researchers in biomass conversion. A couple of clients have expressed willingness to trial short-batch renewable phenol, especially in consumer-goods packaging, but price and scale keep petrochemical sources competitive.
Environmental regulation adds layers of oversight to phenol work. While our oldest reactors came online with limited air abatement, each generation of plant improvements ramps up control over fugitive emissions and wastewater. Tightening water discharge standards keep our laboratory busy with phenol trace detection; we equipped wastewater neutralization units with real-time sensors to keep risk of aquatic contamination almost zero.
Worker health and regulatory compliance have shaped every line inside our plant—no amount of automation replaces an experienced operator responding to unexpected leaks or process upsets. Medical teams in this industry know the vital signs of phenol exposure, emphasizing skin and respiratory protection in every rainy season when floor-level condensation makes handling more slippery.
Market end users also face public scrutiny on phenol-based plastics or resins. Communities, reporters, and regulators question the material’s role in consumer goods, especially in BPA-related stories. As a key material supplier, we provide customers with transparent batch composition certificates and pathways for supply chain disclosure, so their end users know exactly where their polymer materials begin life.
Finding efficiency gains at the source often matters more than squeezing labor or energy downstream. Equipment upgrades paid for themselves through fewer process interruptions and less rework. Recently, redefining catalyst regimes and installing new filter trains boosted throughput and cut impurity levels. Our utility managers worked with process teams to standardize heat integration, saving on fuel and cooling costs each quarter.
More customers request digital access to shipment logs, batch analyses, and COA records. Automated barcode systems track phenol from our tank farm to a customer’s production line. At our end, digitalization means more confidence in inventory and less surprise when urgent shipments hit during off-hours.
Building trust with every liter shipped matters more than promotional campaigns. Large consumers expect predictable supply and quick adjustments if their production schedule changes. We have learned through years of direct feedback that nothing replaces listening when a partner calls, especially after hours or during local holidays. Training new account managers never skips the lesson: solve the problem, don’t just check a box.
We regularly invite third-party auditors and customer inspectors to visit our site. We do not hide process challenges—instead, we collaborate to solve small issues before patterns emerge. Our product development group works openly with customers who want minor spec changes, sometimes running joint trials to see if extra color clarity or moisture control yields any improvement in their plant.
Sustainability drives process changes across nearly all teams inside our complex. Engineers review raw energy throughput, recycling cooling water, and optimizing chemical yield to reduce both cost and environmental load. The technical community keeps pressing for lower emissions and cleaner processing routes. Taking feedback from neighbors or industry groups helps us refine our footprint and adapt production for the future.
Knowledge is as critical as hardware or software. Incoming staff shadow experienced operators for months before taking on batch-level responsibility. We review near-miss incidents and improvement suggestions regularly during safety meetings. The reality of phenol processing has taught us that good habits, along with strong documentation, make a difference.
From our earliest years, we have emphasized quality control and clear communication. Each phenol shipment flows from hands-on operators who test, verify, and document every batch before release. No shipment exits the facility before lab staff sign off that the product matches both internal and external standards.
Customer requests, whether for trace impurity data or clarifications about shipment logistics, get real answers from technical staff. Our internal policy always prioritizes rapid, accurate updates—especially if extreme weather or transport disruptions complicate shipment schedules.
In the field, small production adjustments sometimes create measurable differences for downstream users. Routine third-party certification matters to customers seeking international approvals or new market access. We work directly with auditors and final product inspectors during these export-driven lots. End markets prefer actual measured data over generic compliance claims.
As regulations, consumer scrutiny, and industrial needs evolve, our team’s direct knowledge keeps our production and delivery cycles moving without avoidable surprises. We draw on years of troubleshooting—reacting to customer feedback, adapting logistics, and updating protocols based on lessons learned.
Phenol remains a backbone of chemical manufacturing. Beyond formulae and batch testing, its successful integration into customer supply chains relies on real-world expertise, transparent records, safety-minded employees, and an ongoing willingness to adapt. Every batch we produce reflects a network of skilled people who know the risks and appreciate the opportunities that phenol brings to modern industry.