|
HS Code |
933363 |
| Chemical Name | 4-Chloro-3,5-dimethylphenol |
| Common Name | PCMX |
| Cas Number | 88-04-0 |
| Molecular Formula | C8H9ClO |
| Molecular Weight | 156.61 g/mol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 114-116°C |
| Boiling Point | 246°C (at 760 mmHg) |
| Solubility In Water | Slightly soluble |
| Odor | Phenolic odor |
| Ph 1 Solution | 5.0-7.0 |
| Density | 1.24 g/cm³ |
| Logp | 3.18 |
| Refractive Index | 1.567 |
| Flash Point | 127°C |
As an accredited 4-Chloro-3,5-M-Xylenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A white, sealed 500g HDPE bottle with hazard labels, chemical name, concentration details, batch number, and manufacturer’s logo. |
| Shipping | **4-Chloro-3,5-M-xylenol** is typically shipped as a solid or crystalline substance in sealed, chemical-resistant containers. Packaging must comply with regulations for hazardous materials, ensuring proper labeling and documentation. During transport, it should be kept away from incompatible substances, moisture, and extreme temperatures to maintain safety and product integrity. |
| Storage | 4-Chloro-3,5-M-xylenol should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers and acids. Keep container tightly closed and clearly labeled. Store in a chemical-resistant container to prevent contamination. Use secondary containment to mitigate spill risk and ensure emergency procedures are in place for accidental release. |
Competitive 4-Chloro-3,5-M-Xylenol 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.
We will respond to you as soon as possible.
Tel: +8615380400285
Email: sales2@liwei-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Every batch of 4-Chloro-3,5-M-Xylenol coming off our reactors starts as clear, defined raw inputs—high-purity methylphenols, carefully sourced chlorinating agents, and steady hands guiding the process. The result is a crystalline powder with a chemical formula of C8H9ClO, defined by those two distinctive methyl groups flanking a chlorinated phenolic ring. Our team has honed the production so its melting point, composition, and purity remain consistent every time—a critical difference compared to commoditized, bulk-traded phenols.
We measure purity by direct instrument: gone are the days of letting a supplier’s word suffice. Years ago, unreliable supplies sabotaged downstream batches, leading us to take quality controls in house. Analytical HPLC and spectrophotometry back up every batch, not only for compliance but for peace of mind. Most industrial partners seeking 4-Chloro-3,5-M-Xylenol know that small specs on contaminants translate to real-world outcomes—discoloration in creams, failed microbial challenge tests, exposure to nasty trace by-products.
We started producing 4-Chloro-3,5-M-Xylenol in response to direct requests from medical product companies struggling with stability and spectrum in antiseptics. This compound isn’t just another phenolic bactericide. Those two methyl groups and single chlorine atom shift the activity range, boosting action against a broad spectrum of bacteria and certain fungi. Its physical characteristics also mean easier solubilization in specific co-solvent systems, speeding up formulation. A product manager at a local disinfectants company once mentioned how our purified grade eliminated age-old sediment problems in their liquids, especially under warm shipping conditions.
Because our material resists discoloration and doesn’t throw off odors, personal care formulators turn to it for medicated soaps and handwashes where clarity and olfactory neutrality are non-negotiable. Compared to crude grades or inconsistent imports, our version has fewer residuals, which means gentle products for end users and less headache for QA teams. Our application advice isn’t theoretical—every suggestion comes from direct observation in the field, whether that’s emulsions, detergent bases, or water/alcohol blends.
Running a chemical plant puts us at the crossroads of duty and entrepreneurship. This is especially true with molecules going into healthcare, where downstream users trust us with more than just price and paperwork. During the last pandemic wave, users buying bulk 4-Chloro-3,5-M-Xylenol from new “suppliers” told us how off-odors and stubborn solids occasionally slipped through, ruining finished products and eroding trust with their own customers. We ramped up capacity, hired operators on overtime, and leaned harder on our in-lab controls. What mattered was getting reliable material out to help downstream teams keep up with sudden spikes in demand.
We don’t just copy textbook syntheses—we re-examine interstage purifications, focus on thermodynamic control of the chlorination step to prevent over-chlorination, and select practical, up-to-date filtration aids to yield a clean, crystalline solid. This hands-on, responsible approach means lower residual solvents, minimized unreacted precursors, and a straightforward drying phase—an advantage reflected on every certificate of analysis. Our teams hold internal debates over lot release specs, debating what offers practical safety margins, not just what meets the technical minimum.
Many companies try to build antiseptics around generalized phenolic chemicals, from phenol itself to cresols and chloroxylenols. Yet, careful scientists in the field report different outcomes: shifts in microbial effectiveness, subtle product irritancy, or changes in formulation flow. One hard truth from decades of hands-on blending—substituting active ingredients isn’t a one-for-one swap. For example, para-chloro-xylenols sometimes cause excessive yellowing under sunlight exposure or foul certain batch tanks with persistent residues. The ortho and meta isomers display similar names, but their physical behavior diverges.
From our chemical benchwork, 4-Chloro-3,5-M-Xylenol stands out by merging broad antimicrobial ability with improved solubility in a variety of base systems—especially emulsions with fatty surfactants. Our regular industrial buyers point out how competing materials fluctuate in appearance and can bring unwanted sharp odors into sensitive applications. The consistent particle size, neutral aroma, and smooth dissolution of our product keep process lines humming. Formulators appreciate this because downtime for cleaning tanks costs more than anyone admits.
Other phenolic germicidal chemicals sometimes linger too long in the environment or provoke allergic responses at higher exposures. By sticking to precise process controls, we limit by-products that might trigger these outcomes. A hospital group once flagged a competitor’s product, noting rash outbreaks among staff using antimicrobial soaps. The specific absence of certain isomers and minimized free chlorinated side-materials in our 4-Chloro-3,5-M-Xylenol has meant better tolerability and improved user confidence according to follow-up batch testing.
A year ago, a spike in global shipping costs and upstream feedstock shortages rattled the specialty chemical market. Some of our customers, accustomed to steady, local inventories, reached out over delayed shipments and shifting labels from new sources. Switching between manufacturers carries risks of invisible variations—even with products sharing the same CAS number. The true difference shows up in batch consistency, solubility profiles, and long-term product shelf life. Knowing these risks from experience, we reinforce end-to-end traceability, triangulate raw material supplies from audited, reliable vendors, and invest in backup inventories.
We oversee regulatory documentation with an emphasis on factual detail, because looking the other way on impurity profiles or process changes ruins relationships we spent years building. Our laboratory does not just scan for broad functional groups—we perform detailed quantification for chlorinated by-products, non-volatile residue, and methylated impurities, since customers across the world rely on predictable outcomes. We regularly participate in regulatory workshops to stay ahead of shifting legal landscapes, especially as countries add new specifications for preservatives in topical drugs, handwashes, and surface disinfectants.
By handling the chemistry in-house, rather than outsourcing synthesis, we can quickly adapt to specification changes. The entire team—plant, quality, shipping—meticulously documents every batch. No third-party intermediary stands between our floor and our customer’s order fulfillment. This structure shortens the feedback loop, so when there’s a concern—whether with viscosity in a new bodywash base or extended storage concerns—we get direct answers quickly, without relaying messages through endless middlemen.
The journey producing 4-Chloro-3,5-M-Xylenol hasn’t come without headaches. Initial years saw issues like unexpected discoloration from low-grade feedstocks, or the formation of secondary chlorinated impurities. Working on our own synthesis route, we adjusted temperature control stages, filtered solvents at lower temperatures, and invested in better crystallization tanks. Chemical engineering, on the ground, is about sweat, stubbornness, and hundreds of midnight problem-solving runs—not quick fixes scribbled by consultants.
Sometimes the market leans on the cheapest option, especially when budgets get squeezed. We spent years explaining to purchasing teams how small differences in process create downstream costs in recalls, stability failures, or brand damage. The most persuasive argument tends to be real-world user feedback, not lab graphs. Several times, companies who switched to cut-rate material circled back a few months later, chased by product failures or customer complaints about cloudy finished goods and off-odors.
By setting up downstream collaborative trials and on-site troubleshooting, we help application teams build robust formulations that survive real conditions—temperature swings, mixing with hard water, and months on warehouse shelves. Our support doesn’t end with a shipment; it continues in hands-on suggestions, batch tracking, and help interpreting unusual batch outcomes. We also keep a reserve of technical staff ready to visit user sites—no remote call center, but project managers and chemists who know the details firsthand.
With regulatory bars rising globally, we preempt new requirements by maintaining advanced testing, whether GC-MS profiling for trace organic contaminants or low-level detection of residual solvents. We track market trends for restrictions on certain preservatives or shifts in user safety expectations. A batch cleared through our laboratory won’t need retesting to meet new standards—the process builds this confidence into every shipment.
Every shipment of 4-Chloro-3,5-M-Xylenol leaving our facility represents more than a labeled bag. It stands for long hours, cautious material handling, precise environmental controls, and thoughtful application of chemical engineering. Each adjustment reflects on the next medical soap, disinfectant concentrate, or antifungal cream made somewhere else. Our teams follow up on finished product feedback to pinpoint potential formulation tweaks, such as optimizing dispersant ratios when scaling up or troubleshooting batch instability under suboptimal storage.
The confidence users place in our product springs not from marketing promises but from transparent reports, repeatable results, and flexible technical support. In the competitive world of antimicrobial agents, the difference lies not just in price per kilo, but in long-term relationships, batch-to-batch faithfulness, and commitment to the needs of frontline product developers. Our technical team sits in on developer calls, reviews handwash failure rates, and reviews site-specific results to guide formulation adjustments.
As the manufacturing landscape continues to evolve, the demand for chemical products with both proven antimicrobial action and clean, regulatory-aligned profiles will only intensify. We have seen a strong trend toward higher scrutiny of trace chemicals and hospital-grade performance. Our continuous reinvestment in process technology and people means customers have a direct partner who cares about real-world outcomes, not just output volumes.
At its heart, the story of 4-Chloro-3,5-M-Xylenol is about direct responsibility. From hospital wards and food processing lines to community clinics and factory restrooms, the compounds developed and delivered from our site eventually touch millions of lives. Having walked the line between chemistry and community health, we take great satisfaction in knowing that every ounce sent out stands up to scrutiny. We track adverse effect reports, welcome open feedback from the field, and use that information to shape future batches—drawing a clear line from operator, to lab bench, to the last cap of finished product.
Nothing substitutes for seeing your product at work: a box of soaps delivered to a rural clinic, a shipment of high-purity disinfectant for emergency use, or technical feedback for a formulation designed to minimize skin irritation over time. Every year, we commit to training, technology upgrades, and regular dialogue with end users, because every dose, every application matters. Our investment in high-clarity, traceable 4-Chloro-3,5-M-Xylenol affirms a commitment both to chemical excellence and to those who depend on the products it helps create.