|
HS Code |
963128 |
| Chemical Name | Phenol, 3-Chloro-4-Methyl- |
| Cas Number | 695-73-8 |
| Molecular Formula | C7H7ClO |
| Molecular Weight | 142.58 |
| Appearance | Colorless to pale yellow solid |
| Boiling Point | 236-238°C |
| Melting Point | 45-47°C |
| Density | 1.25 g/cm3 |
| Solubility In Water | Slightly soluble |
| Flash Point | 113°C |
| Pka | 10.12 |
| Smiles | CC1=CC(=CC(=C1)O)Cl |
| Pubchem Cid | 13598 |
As an accredited Phenol, 3-Chloro-4-Methyl- factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle with a secure screw cap, hazard labeling; contains 100 grams of Phenol, 3-Chloro-4-Methyl-. |
| Shipping | **Shipping Description:** Phenol, 3-Chloro-4-Methyl- should be shipped in tightly sealed, labeled containers, protected from light and moisture. It must comply with hazardous material regulations, typically shipped as a flammable and toxic substance. Handle with care, using appropriate protective equipment, and ensure compliance with all local, national, and international shipping requirements. |
| Storage | Phenol, 3-Chloro-4-Methyl- should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers and acids. It should be kept in tightly sealed containers made of compatible material, and protected from light and moisture. Properly label storage containers and restrict access to trained personnel only. |
Competitive Phenol, 3-Chloro-4-Methyl- prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615380400285
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When a lab or factory needs 3-Chloro-4-Methylphenol, the order on our line signals much more than a routine batch. This compound delivers the kind of reliability and purity that our long-standing customers count on, and that expectation ties directly to the countless cycles we’ve run on our own reactors—troubleshooting, refining, and running careful quality checks every step of the way. Unlike generic phenols or commodity intermediates, 3-Chloro-4-Methylphenol brings nuance to its applications. Its specificity begins with careful selection of raw materials—any impurity in the monochlorination or methylation steps shows up in test results later, so each ingredient batch gets our routine scrutiny before it hits the reactors.
Experience has shown that the physical properties of 3-Chloro-4-Methylphenol vary based on process yields, choice of solvents, and strict temperature management. For industrial users seeking a stable intermediate, our manufacturing process produces material with a melting point and assay we're willing to certify with third-party analysis. Moisture and residual solvents fall far below industry thresholds, not just because it looks good on a data sheet, but because downstream reactions demand these levels for consistent results. Whenever a customer asks about our specifications, we share the analytical reports straight from our own QC lab—every metric stems from actual batches, not catalog figures.
Chemists and formulators working in demanding segments—think antiseptics, disinfectants, or custom synthesis for advanced intermediates—come to us for 3-Chloro-4-Methylphenol for a reason. Its role in biocidal formulations connects directly to its broad-spectrum activity, which has been tested across strains of bacteria found in both clinical and industrial environments. Through collaborative feedback, we've observed end-users get tighter control on microbial contamination when they rely on our single-lot runs.
This compound sees action not just in basic research or bench-scale synthesis, but also in the kind of production scenarios where batches can’t tolerate out-of-spec reactivity or off-odors. Textile and leather finishers use our product when they require not just microbiological control, but also color stability and low residue—areas where broad-spectrum, but not overbearing, molecular structure makes a real difference. Melting point consistency, controlled particle size (when supplied as a solid), and traceability down to the drum guarantee that our customers don’t have to manage batch-to-batch variations that cost them on the production line.
Field reports over the years have taught us about the impact of minute byproducts. An over-chlorinated batch comes with higher toxicity profiles—a problem we solved by careful fine-tuning of chlorination times and by reconfiguring our vent gas scrubbing system so no fugitive emissions sneak through unmeasured. Yield optimization doesn’t just ensure competitive pricing but actually produces a cleaner product, with less unreacted phenol and minimal environmental load.
Maintaining purity calls not just for clean starting supplies but also disciplined handling through crystallization and drying. Our workers log every heating cycle and sample regularly as the reaction proceeds. Our differential scanning calorimetry setups catch even small heat-of-fusion anomalies, which could signal contamination or incomplete reaction, allowing us to halt questionable batches before they reach customers. Continuous improvement means shifting reactor agitation rates or extending vacuum drying periods if a batch threatens to slip below assay limits.
Discussing 3-Chloro-4-Methylphenol beside unspecific phenol derivatives uncovers important technical distinctions. Its tight structure, with both a chlorine atom and a methyl group, sets it apart—compounds like plain cresols or monochlorophenols may cost less but often introduce issues with volatility, odor, and reactivity. We see this firsthand in pilot plant trials, where substitution with either of those alternatives translates into increased off-gassing or a lingering ‘smoky’ aroma in finished products.
Field users report that using generic phenols makes it hard to achieve predictable performance in biocidal, preservative, or intermediate applications. We’ve been called in to troubleshoot failed batches from other supply routes—nearly every case traces back to lack of control over positional isomerity or excess contaminants common in bulk-grade products.
In textile and coatings, issues such as staining and yellowing track back to oxidizable impurities found in basic phenol grades. Our compound, prepared through sequences that minimize poly-chlorination and methyl rearrangement, preserves the colorfastness and shelf-life targets set by downstream manufacturers. Customers who switched to our 3-Chloro-4-Methyl-Phenol have reported reduction in batch rejects, especially where light stability and precise antimicrobial action play a role.
Years of supporting scale-up projects have shown us how much research and commercial launches depend on repeatable chemical quality. Formulation scientists run trials with our material knowing that every kilogram came from a monitored, documented, and verified manufacturing flow. We provide chromatograms and impurity profiles with each shipment—overkill for some, but comforting for those who stake production runs on outcome certainty.
Those pursuing regulatory registrations or patent protection can trace every drum back to original reaction logs. We were burned, once, by a lack of traceability—so we overhauled our documentation practices and now encode every container with batch data, analytical summaries, and production timestamps. We know the frustration that comes when discrepancies pop up between batches or paperwork doesn’t match reality. That lesson led us to invest in integrated process control and batch release protocols that keep production aligned with analytical expectations.
Every raw material that enters the plant gets documentation on origin, producer, and :regulatory compliance. Our buyers source methylating agents and chlorinating chemicals from audited suppliers. Unexpected changes in upstream supply—whether due to regulatory factors or quality incidents—prompt immediate secondary validation. With traditional phenols, supply interruption only brings cost headaches for distributors. For us, breaking continuity on 3-Chloro-4-Methyl-Phenol impacts multiple customer production lines, so we maintain strategic reserves in our facility and contract backup capacity with secondary processors.
Disposal, residual waste, and emissions from phenol manufacturing affect our process design. We’ve installed condensation and neutralization systems to minimize air releases and route non-compliant streams for off-site hazardous destruction. Years ago, when waste costs were lower, some processors tolerated inefficiency or venting. Tightened regulations mean today’s manufacturer cannot cut corners without direct risk—and field audits by customers mean accountability is real. We publish not just SDS and CoA, but also life-cycle statements for major clients in regulated sectors (like medical or biocide end-users), reflecting our awareness that the cost of pollution, both environmental and reputational, runs far higher than any short-term margin.
Phenolic compounds can cause irritation and require careful handling in both lab and plant settings. Simple steps—adequate air handling, appropriate PPE, reinforced storage drums—reduce risk. Our team trains all operators on safe material transfer, and our finished lots ship with packaging that holds up against rough logistics environments and temperature swings.
Some end-users have asked for customized packaging, including tamper-evident seals and nitrogen-purged liners to avoid oxidative decomposition in storage. This request isn’t about ticking a regulatory box; it comes from field experience with batches that lost active content before they reached the point of use. We responded by qualifying new drums with inert liners, increasing storage shelf life, and helping customers cut down on waste.
New industry applications continue to put this compound into emerging products. Early conversations with innovators in polymer modification, surface coatings, and specialty adhesives sparked off-the-record trials, which later became commercial orders as our material stood up under stress. Rather than just selling a commodity, we view production as a partnership—feedback from researchers and technicians continually drives fine-tuning of our process.
Each lot of 3-Chloro-4-Methylphenol leaving our plant reflects many cycles of knowledge-building. Our chemists call up past batch records before launching a fresh run whenever a spec deviates, checking for pattern shifts. This habit comes from long exposure to the quirks of small-molecule manufacture, whether that’s a flux in local humidity, a slight change in barometric pressure, or an aging gaskets on old equipment.
We calibrate all our analytical instruments monthly against certified reference standards; this practice was instituted after a missed impurity led to a costly recall ten years ago. None of our staff want a repeat of that disruption—and our customers would not tolerate it. GC-MS, HPLC, UV-vis spectroscopy get used on every release, and spot checks at storage, loading, and transit confirm that product remains within declared tolerances.
Return shipments and rare complaints get handled not by a faceless clerk, but by a technical manager empowered to call back product immediately and conduct on-site follow-ups where needed. During batch investigations, we pull samples from archived stock, run side-by-sides on contamination, and update both records and process controls so future lots improve.
Over time, regulators and industry groups have strengthened oversight on intermediates like 3-Chloro-4-Methylphenol, especially as its uses expanded into sensitive fields. By anticipating new compliance curves—RoHS changes for electronics, REACH restrictions for Europe, and increasingly, stricter documentation on biocide actives—our compliance staff stays ahead of paperwork and safety submissions.
Rising demand for greener chemistry brought new reporting hoops for manufacturers. Early on, we shifted to lower emissions processing, keep complete waste manifests, and integrated electronic recordkeeping, not for PR but to pass audits for large pharmaceutical and industrial buyers. Our customer certifications and regulatory support materials go beyond minimum content, and we often participate in industry association forums to keep aware of changes before they hit the supply chain.
Inside our plant, veteran operators, lab techs, and production engineers swap knowledge next to the reactors, trading fixes for leaky valves or odd sample results. We understand why customers often want to deal directly with the source—distributors can route paper, but the people running the finishing still know where the toughest problems hide. Real connections get made over shared troubleshooting stories more than brochures or price lists.
The toughest training comes not in the classroom, but during live plant runs. New engineers spend their first months shadowing team leads during batch startups and shutdowns, learning to spot small changes in the color or aroma of intermediate samples. These skills matter especially for nuanced compounds like this; being able to tell by scent or texture when an overheating risk threatens purity trims hours off problem resolution and keeps product moving out the door on time.
Community trust matters too. We knew we hit the mark when neighboring enterprises reached out for advice on their own plant upgrades and material handling strategies. That real-world feedback shapes how we keep our own process tight—not just to keep regulators happy, but because word of mouth passes quickly in this industry. The mark of a sustainable, reliable product traces both to technical performance and to building confidence among peers, customers, and auditors alike.
Looking forward, new requirements from end-users in health, environmental, and performance-driven industries continue to shape how we produce and deliver 3-Chloro-4-Methylphenol. Feedback loops from technical support drive investments in new analytical equipment, improved batch records, and trace contaminant removal. We respond to requests for greater transparency by offering plant visits and technical briefings, letting partners see the actual production backdrop with their own eyes.
Emerging application demands—like higher regulatory scrutiny in the food and personal care sectors—encourage continued refinement of both process and post-production handling. Our experience manufacturing this compound puts us in a strong position to collaborate with companies developing next-generation formulations, whether in synthetic chemistry, biocide research, or specialty polymers. Hands-on support, combined with an open-door approach to quality data and process change, helps us adapt and deliver both the chemical and the confidence that users need to drive successful projects.
Every drum of 3-Chloro-4-Methylphenol today still reflects hands-on experience: careful process decisions, hard-earned lessons from recalls and rejects, and the mindset that each client’s success runs parallel with our own. We know customers by name—not as numbers—and stay ready to answer questions that range from product reactivity to long-term supply outlook. That mindset proves itself not in advertisements, but in the steady growth of long-term partnerships and in the consistency of feedback from the labs and plants who depend on our material.
With an understanding that consistency, transparency, safety, and technical support guarantee more than just a sale, we keep investing in our production process and our people. Manufacturing 3-Chloro-4-Methylphenol blends scientific rigor and real-world practicalities as we strive to meet the evolving needs of the industries and innovators who trust our work.