|
HS Code |
340622 |
| Chemical Name | 3-Hydroxyphenol |
| Alternative Names | m-Hydroxyphenol, Resorcinol |
| Chemical Formula | C6H6O2 |
| Molecular Weight | 110.11 g/mol |
| Cas Number | 108-46-3 |
| Appearance | White to off-white crystalline solid |
| Melting Point | 110 °C |
| Boiling Point | 280 °C |
| Solubility In Water | Soluble |
| Density | 1.28 g/cm³ |
| Odor | Slight phenolic |
| Pka | 9.4 |
| Flammability | Combustible |
As an accredited 3-Hydroxyphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 3-Hydroxyphenol is packaged in a 100g amber glass bottle with a tamper-evident cap and detailed hazard labeling. |
| Shipping | 3-Hydroxyphenol (m-Cresol), a chemical compound, should be shipped in tightly sealed containers made of compatible materials to prevent leakage and contamination. It must be kept away from sources of ignition and incompatible substances. Shipping should comply with local, national, and international regulations, including appropriate hazard labeling and documentation. |
| Storage | 3-Hydroxyphenol (m-Cresol) should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers and acids. Protect from light and moisture. Properly label the container, and store it in designated chemical storage areas, away from heat and direct sunlight to prevent degradation. |
Competitive 3-Hydroxyphenol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615380400285 or mail to sales2@liwei-chem.com.
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Tel: +8615380400285
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3-Hydroxyphenol belongs in the phenolic chemical family, standing out in the workshop and in the warehouse as a reliable building block for several downstream applications. In our experience producing this compound on an industrial scale, certain details and nuances speak louder than stock catalog descriptions. This is not just about supplying another intermediate; it’s about precision chemistry, batch reliability, and understanding why some manufacturers keep coming back with the same request.
We label our 3-Hydroxyphenol under the model number 120-43-4 for traceability and purity assurance. Every shipment that leaves our facilities goes through rigorous quality controls. Our standard chemical specification focuses on purity (greater than 99%), minimal water content, and negligible inorganic impurities. What matters for our customers is often invisible to the casual observer: stability across batches, clarity in appearance, and zero surprises in reactivity when integrated into a multi-step synthesis process. The crystalline white powder or fine off-white flake you hold contains none of the guesswork found in subpar materials.
Consistency makes or breaks a manufacturer’s value, especially with 3-Hydroxyphenol. We source phenolic feedstocks directly, control batch synthesis from start to finish, and stand behind our environmental controls during production. Years ago, we saw how inconsistent heating or minor fluctuations in catalyst amounts could introduce impurities that compromise yields or downstream color stability. Simply hitting a specification does not always mean reproducibility. Our technicians and process engineers keep tight logs and maintain in-line analytics to avoid these pain points our customers report with other sources. This often pays off in reduced batch scrap rates for our clients who are scaling up in the resin or pharmaceutical market.
Few intermediates enjoy as many uses as 3-Hydroxyphenol. End users in the resin space rely on it for step-growth polymerizations. Some batches transform into antioxidants crucial for stabilizing plastics; others make their way into dyes and agrochemical intermediates. Our partners in the pharmaceutical sector have drawn particular satisfaction from its performance in active ingredient synthesis, where minor product inconsistencies can mean a failed regulatory submission or toxicological miss. Some orders, driven by electronics manufacturers, require ultra-low metal content, and we learned the hard way that not all purification approaches deliver the right signal-to-background ratios for high-purity electronics formulations.
Production and use of 3-Hydroxyphenol is not only about chemical purity; it is also about handling and packaging. We keep moisture tightly in check and routinely audit our drum-sealing operations. Moisture pickup during storage will shift chemical behavior if left unchecked, which experienced formulators will attest can cause processing headaches downstream. We train our operators and supply chain staff not just on process but also on the “why,” because the impact of a small oversight grows with volume. No slip-ups, no corner cutting—reliability starts upstream and carries through to our delivered product.
On the surface, 3-Hydroxyphenol shares many traits with the ortho and para hydroxyphenols, but real-world production experience brings out sharp contrasts. Through years of direct customer feedback and return order patterns, our factory has learned that end-use performance draws clear lines between these isomers when it matters most. For developers at the bench, the position of the hydroxy group alters reactivity and downstream molecular binding. 3-Hydroxyphenol, or meta-hydroxyphenol, occupies a sweet spot for specialty polymers and selective organic syntheses. Reaction rate, solubility pattern, and stability during high-temperature reactions set it apart from both catechol and hydroquinone, which tend toward different applications and process sensitivities. We have spoken with processors frustrated after switching isomers, only to watch yields plummet or process safety flags mount. That feedback has shaped how we communicate with first-time buyers and long-term partners alike.
It would be thoughtless to overlook the real differences in impurity handling across meta, ortho, and para hydroxyphenols. Process chemists sometimes underestimate how non-target isomers and trace catalyst residues impact not only final product performance but also compliance and waste disposal costs. By keeping clear analytical records and sharing those findings with our customers, we aim to avoid these pitfalls. Our laboratory often runs comparative checks against standard market samples just to ensure our claims stand up under scrutiny, not only for QC compliance but also for confidence in customer production environments.
Scaling up 3-Hydroxyphenol is not as simple as scaling up other organic intermediates. Years ago, during our expansion phase, we faced flow bottlenecks due to incomplete temperature distribution in the reaction vessel. The variability this introduced put entire deliveries at risk. The solution required investment in better in-line sensors and overhauling our batch tracking protocols. Today, we work off real-time data, troubleshooting before problems migrate downstream. Most new orders undergo a pilot run before transferring to bulk production. This practice provides insight into material behavior, especially critical for meeting the tight specifications of our electronics and pharma clients.
Another persistent challenge emerges during storage and transport. Exposure to air or low-grade packaging triggers slow oxidation, setting off unwanted yellowing—subtle visually, but devastating for applications that demand optical purity. We switched to nitrogen-blanketed drums, a move directly informed by customer process feedback. This small adjustment slashed complaint rates about discoloration and reactivity drift post-delivery. For formulators who value stable shelf life, these packaging upgrades deliver real savings and predictability, not just batch-to-batch but year-to-year through changing seasons and supply timelines.
Manufacturing 3-Hydroxyphenol also means living up to current and future environmental standards. We maintain closed-system synthesis and recovery for both solvents and phenolic byproducts, minimizing emissions while protecting operator health. OSHA and REACH compliance play out in daily audits; we do not treat these as checkbox activities but as long-term risk reduction. Heavy fines and forced process shutdowns are not just hypothetical threats—they are reminders that investing in safety pays dividends. Our partnerships with local environmental authorities inform how we engineer our vent capture systems and monitor water effluents, with quarterly reports rolling up to upper management. The assurances our environmental team provides give purchasing managers confidence when sourcing for global portfolios where compliance stakes run high.
Handling, storage, and employee training receive ongoing attention. Even small mistakes in handling this chemical can lead to skin or respiratory reactions. Our hands-on training modules and annual safety drills go beyond standard MSDS handouts. Operators who know the reactivity profile and PPE needs never become complacent. One near-miss incident in our early days, when a supplier delivered off-spec raw material, resulted in a batch that nearly failed downstream. Since then, we even double-screen our incoming feeds and always run a quick reactivity test before blending into bulk production. This routine gives us—and in turn, our clients—confidence that each lot coming out of our plant maintains strict adherence to benchmarks set by end-users.
At the scale where our company operates, chemistry loses its textbook simplicity and becomes a test of discipline, training, and insight built over many years. We have seen rookie operators learn the “why” behind proper handling through hands-on process work, not just from posters on the wall. Each procedural check reflects lessons earned over the past decade. By integrating feedback from laboratory staff, floor technicians, and end customers, our production loops evolve. Regular staff meetings involve more than reviewing output numbers; feedback on problems traced back to raw materials or a tweak in reaction parameters goes straight into our process refinement cycle.
Client feedback drives our iterative improvements, too. We launch follow-ups with each large batch order, collecting insights not only about chemical function but also about packaging, documentation, and delivery precision. One electronics customer once flagged issues around static discharge and packaging surface contamination. Our cross-functional team diagnosed the root cause—trace dust introduced in the packing room caused by HVAC filter bypass. After fixing the filtration and retraining our staff, new batches shipped without further issues, and the client reported a full resolution. The lessons these troubleshooting exercises generate turn into preventive measures that benefit all customers, not merely as immediate fixes but as structural improvements across lots and years.
As global regulations evolve and audits become more frequent, reliable traceability separates serious manufacturers from the pack. We stamp each drum and bulk container with detailed lot history, raw material source data, and processing date codes. These records allow us and our customers to trace every deviation and pinpoint root causes rapidly, eliminating ambiguity and finger-pointing. Detailed documentation attached to lot shipments is not just for regulatory eyes—it offers foremen, production managers, and lab staff the reassurance that each order can be tied back to concrete process steps and QC decision points. Whenever a buyer calls about technical concerns, our staff can review production logs and analytical results in minutes, leveraging years of data to give clear, fast answers.
We have learned that being open about process improvements provides two-fold benefits—first by building deeper customer loyalty, and second by revealing internal wins to our own staff. Regular internal case reviews highlight not just what went well, but where close calls nearly disrupted supply or customer operations. This process ultimately embeds the principle that excellence in supply means attention to daily detail, not resting on a reputation established by old orders or generic catalog promises.
In the field, customers range from researchers using grams for early-stage synthesis, to bulk producers in resin, dye, and pharmaceutical industries ordering tons per year. The reasons they trust our 3-Hydroxyphenol come back to lessons learned from scale-up mishaps, inconsistent feedstock, and shifting regulatory demands. Reliable sourcing, verified purity, and straightforward technical support take precedence over lowest-cost procurement. From agroscience teams working on new formulations to electronics engineers demanding the highest trace metal purity, our goal is to supply more than just raw materials—we aim to enable their success.
The best testimonial, in our view, comes from repeat orders and fewer customer complaints over time. The chemists, engineers, and managers who make up our client base need fewer surprises. They want material that fits into their established processes, and they want to keep their own teams focused on innovation, not troubleshooting. Listening to their needs shapes not only our finished product but also our attitude toward future investment in process improvements and laboratory upgrades. Responding to these needs, both stated and unstated, distinguishes an engaged chemical manufacturer from commodity vendors fixated solely on output statistics.
Every year, market pressures and evolving target applications change what buyers expect from 3-Hydroxyphenol. The past two years alone have brought higher demand from producers making advanced resins for electrical insulation, new antiproliferative agents in pharmaceutical development, and specialty dyes used in high-speed inkjet printers. These shifts push us to revisit not just our synthetic process but also our purification and final product handling. By feeding customer feedback into ongoing process optimization projects, we remain agile and ready for specification changes or new testing requirements—a necessity in markets where technology never stands still. Industry partners now ask for more than clean certification: they require analytical backup, responsive technical support, and clear evidence that hazardous impurities get tracked and eliminated, from procurement to packing to site delivery.
Lately, sustainability has climbed to the top of customer and regulatory agendas. We now publish an annual sustainability report detailing our energy consumption and waste reduction achievements in manufacturing 3-Hydroxyphenol. It is not only about regulatory compliance or marketing claims; it’s about proving to both customers and employees that today's operational improvements lead toward a safer, cleaner future for the entire supply chain. Manufacturing chemicals at scale requires more than technical know-how—it calls for an ongoing commitment to transparency, safety, and listening to those who use our products.
Working with 3-Hydroxyphenol over the years has reinforced a crucial industry lesson: the smallest details in manufacturing, testing, and packaging can make the biggest difference for downstream users. Precision, transparency, and a willingness to learn from every batch produced create long-term partnerships that withstand regulatory shocks and supply interruptions. We draw on decades of accumulated experience, process know-how, and customer-driven adaptation with each new lot of 3-Hydroxyphenol delivered. As new applications arise and quality requirements grow stricter, our commitment remains grounded in real-world data, mutual problem-solving, and investment in plant and people alike. Ultimately, it is this mix of technical rigor and responsiveness that keeps our customers’ lines running, their innovations on track, and our own operations at the top of what a global manufacturer can offer.