|
HS Code |
849137 |
| Chemical Name | 4-Chlorophenol |
| Synonyms | p-Chlorophenol, para-Chlorophenol, 4-CP |
| Molecular Formula | C6H5ClO |
| Molar Mass | 128.55 g/mol |
| Appearance | White to light beige crystals or solid |
| Melting Point | 43-45 °C |
| Boiling Point | 218 °C |
| Density | 1.306 g/cm³ |
| Solubility In Water | 2.7 g/L at 20 °C |
| Cas Number | 106-48-9 |
| Odor | Phenolic, medicinal odor |
| Flash Point | 81 °C |
| Refractive Index | 1.585 |
| Stability | Stable under normal conditions |
As an accredited 4-Chlorophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 4-Chlorophenol is packaged in a 500g amber glass bottle with a tight-sealing cap and warning hazard labels. |
| Shipping | 4-Chlorophenol should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled with appropriate hazard warnings. Transport must comply with local and international regulations, such as DOT and IMDG. Store upright in a cool, well-ventilated area, away from incompatible substances. Handle with proper protective equipment to prevent leaks or spills during transit. |
| Storage | 4-Chlorophenol should be stored in a cool, dry, well-ventilated area away from heat, sparks, and open flame. Keep the container tightly closed and clearly labeled. Store it away from incompatible substances such as oxidizers and strong bases. Use corrosion-resistant containers, and ensure secondary containment to prevent leaks or contamination. Protect from direct sunlight and minimize moisture exposure. |
Competitive 4-Chlorophenol prices that fit your budget—flexible terms and customized quotes for every order.
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Manufacturing 4-Chlorophenol takes more than just following a recipe. Every batch tells the story of choices made throughout the process, from raw phenol selection to the final purification steps. Knowledge built over years supports every improvement in consistency and reliability. Small shifts in raw material purity or reaction parameters quickly reveal themselves in the end product. In this industry, details shape not only the technical quality, but also customer trust. Chemists and plant engineers alike know that the nuances in chlorination—temperature, reaction time, catalysts—greatly influence the outcome. Our plant specializes in producing 4-Chlorophenol with tight controls on critical specifications such as purity, moisture content, and packaging integrity. Practical experience fosters a sense of responsibility; a single misstep can set off headaches for downstream users, so there is no shortcut for genuine expertise.
Our product line focuses on 4-Chlorophenol with a content typically above 99%. We monitor for trace impurities including other chlorophenol isomers and residual solvent. Slight shifts in specifications, like chlorine positioning or trace water content, might not catch the attention of those on paper—yet in the field, they have a tangible effect. Equipment maintenance staff in resin manufacturing plants have shared feedback on filter fouling resulting from even marginally higher byproducts. Some batches elsewhere that claim high purity end up with inconsistent melting, color changes, or even strange odors during use.
Industry users look to us for repeatable product behavior. We package in steel drums or lined containers depending on logistics and customer handling preferences, because every loss from inadequate packaging means both immediate cleanup and a strain on client relationships. Even after years of producing 4-Chlorophenol, we still work closely with maintenance teams and production managers downstream. As a result, we have learned to focus not just on headline numbers like assay percentage, but also on factors such as stability under warehouse environments, and compatibility with typical plant solvents.
Manufacturers and chemical processors have relied on 4-Chlorophenol for decades. Among the monochlorinated phenols, 4-Chlorophenol carves out a niche due to its respectable balance of solubility and reactivity. It appears frequently in the preparation of phenolic resins, herbicides, dyes, and certain pharmaceuticals. Production volumes rise and fall with agricultural cycles, construction demand, and regulatory direction. Over the past quarter-century, shifts in agricultural policy, environmental controls, and global trade have shaped usage. An end-user working in polymer synthesis wants a consistent phenolic backbone for downstream cross-linking. Paint additive formulators choose it for reliable antimicrobial properties and compatibility with established mixing routines.
As demand rises, competition also intensifies. Years ago, some buyers favored lower-cost alternatives, but they soon realized that similar-sounding products didn’t always fit. Processors who tried to substitute 2-Chlorophenol or 2,4-Dichlorophenol ran into trouble. Those products display different boiling points, reactivity, and odor characteristics, leading to unpredictable results in synthesis or application. A team member once recounted a batch of resin ruined by a mismatch in feedstock isomer, with hours lost diagnosing the cause. Familiarity with these headaches naturally prompts thoughtful purchasing decisions, anchoring 4-Chlorophenol’s value.
4-Chlorophenol feels indispensable across several downstream fields. Resin producers count on it because the para-chloro structure leads to efficient polymerization and a stable final product. In herbicide formulation, the compound serves as a crucial starting material, with reactivity tailored to produce targeted agrochemicals. Dye manufacturers leverage its solubility profile and predictable reaction pathways. For pharmaceutical intermediates, pharmaceutical engineers highlight the need to trace and control even low-level impurities, as those can cause problems during later synthesis and purification. Part of our job as manufacturers is collaborating with customer technical teams so they can get dependable performance each shipment.
End-users voice specific preferences and, sometimes, hard requirements for certain physical properties—melting range, odor profile, and even container lining for sensitive applications. One pharmaceutical partner told us that even slightly off-odor product could set back process runs, costing thousands in wasted time. Resin customers often worry about the subtle build-up of undesirable tints during polymer curing. We track the smallest defects that could cause such problems, investing in analytical capacity and downstream simulation tests so we can truly understand how our 4-Chlorophenol will behave—not just in the laboratory, but also at scale in industrial plants.
Within the world of chlorinated phenols, differences count. Chemists distinguishing between 4-Chlorophenol and its isomeric cousins (like 2-Chlorophenol and 2,4-Dichlorophenol) see firsthand how those distinctions play out in actual manufacturing. 2-Chlorophenol, for example, delivers a stronger, more pungent odor—tougher to handle, especially in closed production environments where worker safety drives design. 2,4-Dichlorophenol sits farther up the chlorination path, with higher toxicity levels and different physical properties that don’t match every process. In our years producing all three, we have seen customers struggle with foam formation, unexpected color, and reduced yield when using the wrong isomer as a direct substitute.
Customers come back to 4-Chlorophenol for its balance of process safety, manageable odor, and compatibility with bulk chemical workflows. Even packaging considerations differ: Some clients find certain grades of 2-Chlorophenol too aggressive for conventional drums, risking corrosion if the product sits for months. With 4-Chlorophenol, our experience shows fewer long-term storage issues, provided we adhere to rigorous drum selection and internal lining maintenance.
Producing 4-Chlorophenol means dealing with fluctuations in phenol supply, shifts in energy policy, and regulatory crackdowns on chlorination processes. At our facility, any disruption—an unexpected power cut, supplier delay, or regulatory inspection—can toss carefully balanced timelines. Operators use redundancy in critical systems, and plant managers often maintain at least a month’s worth of safety stock.
Over years of operation, the most valuable lessons have come from working through these moments of stress. During seasons when raw material prices spiked, we re-evaluated reaction efficiencies and pushed for more robust recovery procedures. Regular dialogue with logistics teams keeps us alert to risks in transport and storage, and mechanisms for early warning—like on-site humidity and drum deformation monitors—let us stay ahead of potential problems. Downstream clients also appreciate full transparency, so as a matter of standard practice, we communicate scheduling on every confirmed order.
Environmental stewardship takes center stage in chlorination chemistry. We have shifted our processes over time to minimize residual byproducts and scrub effluent to tougher standards as local and international regulations evolve. In the 1990s, older emissions limits allowed looser operations. Today, we install more advanced scrubbing and waste heat recovery, and third-party auditors evaluate our practices annually. This changes not just our environmental profile but also the practical economics of making 4-Chlorophenol in modern facilities.
Clients often express concern about trace dioxins or other impurities sometimes associated with the manufacture of chlorinated aromatics. Through continuous review and testing, we work to ensure those contaminants sit below detection limits. This leads to real impacts—customers with environmental product declarations depend on our supporting documentation, and any misrepresentation can severely harm both reputations and business relationships. As markets in Europe and North America demand cleaner, safer intermediates, such attention to detail sifts responsible manufacturers from short-term opportunists.
A product specification sheet lays out the base expectations—content, melting range, appearance, and allowed moisture. What sets apart a reliable manufacturer is not just hitting those marks, but doing so every time, over hundreds and thousands of batches. We invest in analytical infrastructure beyond the minimum requirements. Process engineers check for long-term drift and rare outliers. For instance, GC-MS and HPLC backups reduce the chance of missing subtle impurities that a standard titration might overlook.
Inspection routines also extend to packaging checks and random stress tests—customers store 4-Chlorophenol under wildly varying conditions, from dry inland warehouses to humid port facilities. Years back, one client reported drum bulging after an unusually hot summer. We traced the issue to a shift in sealing compound formulation and collaborated with a supplier to improve compatibility. These process tweaks, born out of actual events and customer feedback, build long-term confidence.
4-Chlorophenol comes with its share of hazards. Operators at our plant train for skin and eye contact incidents, as well as vapor exposure risks. We redesigned parts of our unloading bay layout after a near-miss, so drums now pass through contained transfer zones with ready access to spill response materials. The margin for error shrinks further at customer sites, as productions lines rarely pause for extended downtime.
We have seen plant crews forced to deal with unexpectedly solidified product or persistent odors due to minor formulation or storage mishaps. While 4-Chlorophenol’s melting point sits within accessible ranges, even small levels of less-volatile impurities can raise or lower it, causing flow and handling problems. As a result, both production and packing teams adjust temperature and storage protocols, based on regular feedback from users working with both bulk and small containers.
Innovation tends to follow speed bumps in actual use, more than any laboratory brainstorm. Problems encountered by end-users drive improvements. We have presented several cases where subtle changes—tighter light exposure controls, or additive tweaks to reduce color drift—translated into easier handling and better performance at customer plants. These changes add value that goes beyond just numbers on a certificate of analysis.
Long-term development also looks to process sustainability: solvent recovery systems, low-energy chlorination routes, and container re-use schemes. Working with research partners and client innovators sharpens our understanding, keeping us ahead of changes in market needs and compliance requirements. Our adoption of high-efficiency condensers and emission-reduction protocols stemmed from both policy trends and real-world client audits. Some clients seek to close their material loops by reclaiming and returning spent drums, which has become a practical element of our supply chain service.
Demand for 4-Chlorophenol tracks shifts in the coatings, construction, and crop science sectors. In practice, this means that plant production lines, packaging procurement, and shipping operations must remain flexible enough to scale up quickly or wind down safely during market swings. Supply chain resilience takes ongoing commitment. Partnerships with logistics providers and raw material suppliers hinge on mutual trust and transparent communication.
We also watch trends in substitute chemistry, such as biobased phenolics or more benign alternatives. Yet for now, many industrial users still return to 4-Chlorophenol for its proven performance and integration into longstanding process lines. Policy changes will always shape the landscape, as regulatory regimes tighten and new technologies emerge. Maintaining practical adaptability, without losing sight of stringent quality control, remains a point of pride for our team.
True expertise shines when engaging directly with technical and process managers inside customer organizations. We have worked side by side with plant chemists to identify root causes of reactivity issues or subtle product drift. Open communication and willingness to share technical observations build productive long-term partnerships. After responding to a customer’s formulation issue that traced back to ambient storage temperature, our technical team developed handling guides tailored to specific seasons and logistics routes. Such collaboration ensures fewer disruptions and more predictable application results.
A buyer searching for 4-Chlorophenol often asks for more than a price quote or a technical sheet. What customers want is a supplier who can relate practical, lived experience: what storage temperatures work best, how long a product can reasonably remain in drums before repacking becomes necessary, and which cleaning agents work with the associated residues. Shared experience, not just paperwork, drives successful applications and builds industry confidence.
Behind each shipment of 4-Chlorophenol lies years of accumulated knowledge from both within our facility and across the industries we serve. From raw material sourcing through to packaging and delivery, every choice reflects real-world lessons and direct customer feedback. The differences between 4-Chlorophenol and similar products become magnified as one traces the journey from the drum to the finished resin, herbicide, dye, or pharmaceutical intermediate. Manufacturing with attention to detail, ongoing safety improvements, and practices dedicated to honest collaboration set the stage for reliable performance—where consistency and practical utility build more than just a chemical, but a foundation for progress in every connected field.