|
HS Code |
388752 |
| Chemical Name | 2-Chloro-4-Fluorophenol |
| Cas Number | 387-52-2 |
| Molecular Formula | C6H4ClFO |
| Molecular Weight | 146.55 g/mol |
| Appearance | White to pale yellow solid |
| Melting Point | 53-56 °C |
| Boiling Point | 208-209 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.44 g/cm³ |
| Purity | Typically ≥98% |
| Synonyms | 2-Chloro-4-fluorophenol, 4-Fluoro-2-chlorophenol |
| Smiles | C1=CC(=C(C=C1F)Cl)O |
| Refractive Index | 1.583 (Predicted) |
| Storage Conditions | Store at room temperature, tightly closed, in a dry place |
| Hazard Statements | Causes skin and eye irritation |
As an accredited 2-Chloro-4-Fluorophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 100 grams of 2-Chloro-4-Fluorophenol, sealed with a screw cap and hazard warning labels. |
| Shipping | 2-Chloro-4-Fluorophenol is shipped in tightly sealed containers to prevent leakage and contamination, and must be kept away from incompatible substances. It is typically transported as a hazardous chemical, following all relevant regulations for safe handling, labeling, and documentation. Avoid heat, sunlight, and moisture during transit, ensuring secure, upright positioning at all times. |
| Storage | 2-Chloro-4-Fluorophenol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and bases. Protect from light and moisture. Ensure the storage area is equipped with appropriate chemical spill response materials and is clearly labeled. Avoid exposure to heat and sources of ignition. |
Competitive 2-Chloro-4-Fluorophenol 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!
In industrial chemistry, the details of raw material quality and production practices carry more weight than generic online listings might suggest. As a producer of 2-Chloro-4-Fluorophenol, we keep our focus firmly on what this compound brings to the businesses that rely on it. Each batch tells a story of purposeful process control, careful resource sourcing, and routine feedback from our long-term clients in pharmaceuticals and specialty chemicals. The difference starts right from raw material inspection and ends with practical feedback—every drum and flask shipped carries both chemical consistency and a handshake, not just a label.
Chemists recognize molecular structure as the key variable for both reactivity and product safety. Our 2-Chloro-4-Fluorophenol features a balanced halogen substitution on the phenol ring, which translates into high selectivity in coupling reactions and a consistently clean starting point for pharmaceutical intermediates or crop protection development. Because the feedstocks—chlorinated and fluorinated aromatics—demand careful handling, our team runs regular monitoring for impurities through each step. Trace halide control counts for both safety and next-stage reactivity. Experienced eyes skim every chromatogram after each run, confirming our product’s minimum 98% purity before packaging.
This compound, provided as a crystalline solid, has a characteristic pale hue and a manageable melting-point range. These seemingly routine attributes gain meaning only after repeated runs—end-users ask for troubleshooting support in scale-up, so we built out our own process notes based on decades of feedback. Storage stability often gets overlooked by third parties, but direct customers pool these insights with us. We’ve witnessed odd caking or off-coloration happening under tropical shipping scenarios, so we optimize lot sizes and desiccant loads based on each partner’s warehouse reality rather than generic shelf-life claims.
End-use feedback comes from more than just phone calls. Over the years, we’ve supported both contract research teams and major synthesis plants. A mid-sized pharmaceutical group once reported streaks in their end-product after using a competitor's batch. We ran parallel syntheses: one side-by-side with our own material, another with theirs. The results repeated what others told us in snippets—our chlorinated/fluorinated substitution pattern delivered higher conversion in halogen-selective couplings, left less residue after final workup, and needed less column time at the pilot scale. These are not empty metrics: they mean lower costs, fewer purification cycles, and faster pathfinding for those bringing new actives to market.
Rapid access to technical data makes a difference, especially for researchers under deadline. Since we own our processes end-to-end, our technical desk answers structure/reactivity questions from direct experience instead of running between distributor scripts. Recently, a client asked about minor peak formation during a Suzuki coupling. Because our site tracks byproduct content and residual solvent by batch, we could reference exact residual levels and suggest small solvent tweaks rather than advise generic troubleshooting. The client reported better GPC purity profiles with these targeted changes, reinforcing why direct knowledge matters.
Manufacturing 2-Chloro-4-Fluorophenol has taught us to respect both classic organic chemistry and modern process engineering. The complexity of the halogen exchange step often drives up waste or introduces inconsistent byproducts if not carefully optimized. We maintain closed-system transfers under nitrogen, use dedicated reaction vessels for each halogenation run, and tighten our purification steps when routine monitoring signals even a slight deviation. These choices—all driven by real-world learnings—mean lower contamination risk for our customers’ final products and fewer headaches during their scale-up or validation runs.
Supply chain turbulence sometimes brings generic materials onto the market, priced attractively but marred by variable batch quality or improperly labeled hazard data. We consistently hear stories from new clients explaining how variable halide ratios or elevated starting impurities complicated their own synthesis—leading to failed runs or hours spent troubleshooting. Our commitment to process reproducibility and up-to-date technical documentation grew not from abstract requirements but practical necessity, built from years witnessing the cost of missteps.
Pharmaceutical chemists often seek this compound for its helpful activation pattern in aromatic substitutions. The combined chloro and fluoro substituents enable regioselective coupling—not just a theoretical benefit but a matter of real efficiency and lower byproduct formation. Our clients in the crop science space push the boundaries of formulation performance, and they rely on our product’s consistent melting point and moisture content to drive uniform formulation blending. Over multiple campaign seasons, we’ve responded by tightening our particle size control and introducing incremental moisture checks post-filtration.
The requirements of regulated industries drive further improvements on our end. Several partners process our material under ICH guidelines or with GMP process oversight, so we support them with full impurity tracking for each lot and maintain internal reference standards for quick conformity results. Auditors have walked our lines and reviewed our batch records, enforcing standards of traceability that benefit everyone using our material. In practice, customers repeatedly ask for support in DMF filings or REACH notifications, so our documentation extends to impurity profiles, safety assessments, and even process change logs as required by their regulatory frameworks.
Working with dozens of halogenated aromatics over the years, the subtle strengths and difficulties of each analog have become obvious. 2-Chloro-4-Fluorophenol often replaces other mono-halophenols or simple phenol derivatives, saving cost and process time by delivering better selectivity in cross-coupling. Direct replacements—like monochlorophenols or monofluorophenols—lack the same reactivity profile seen under palladium-catalyzed reactions or certain nucleophilic substitutions. Talk to users of these alternatives, and traces of incomplete conversion or misdirected substitution frequently come up, issues we rarely encounter with our product given the dual halogen design.
Handling requirements also differ. We’ve seen how some alternative materials—with higher volatility or more aggressive acid impurities—need extra PPE and stricter environmental monitoring. Long-term users point out the relative ease with which our 2-Chloro-4-Fluorophenol lots store and dispense, favoring it over others when facility capabilities are under strain or scale-up volumes force round-the-clock shifts.
From a life-cycle perspective, the downstream waste burden with our material typically runs lower, thanks to reduced side product generation. Plant engineers sometimes compare effluent loads and report simpler treatment profiles with our product’s usage. This equals cost savings at the waste treatment stage, and less regulatory red tape for large sites juggling multiple production campaigns.
Rich experience in mid-scale and large-scale manufacturing means not just producing material but ensuring handlers and users adopt safe and sustainable practices. Our in-house safety training covers both the acute hazards of phenols and the unique toxicity interactions of halogenated organics. Every staff member working with 2-Chloro-4-Fluorophenol receives regular refreshers on handling, personal protective equipment, and spill response—practices we’re happy to share with any partner facing onboarding challenges. By integrating industry best practices into daily routines, we keep incident rates lowest among our peer group, and operators treat each load-out as a matter of professional responsibility.
We insist on transparent hazard communication in every package, and our customers trust the completeness of both our safety sheets and on-the-ground advice. Often, it’s about sharing the little things—good ventilation in semi-closed dispensing rooms, routine checks on drum labels for residue, updates on real-world fire point thresholds—because these lived realities make a material difference in accident prevention. Over time, these routines build a mutual respect that no generic supplier can offer.
Life as a primary manufacturer means living with every batch, not just shipping product. Customer feedback comes back to us as real challenges that shape our next process improvements. One partner in the specialty dye market noted shifts in color strength with a prior supplier’s lots; together, we tracked the root cause to barely-detectable byproducts and, through steady joint analysis, adjusted our downstream removal steps. Another pharmaceutical vendor flagged issues with microparticulate contamination in a joint review; our team responded by tuning filter mesh grades, adjusting vacuum settings, and retesting before next delivery. These continual, two-way exchanges help all parties push industry quality forward.
Our lab doors remain open to clients needing method validation or small-scale pilot support. Sharing insights about solvent compatibility or tips for minimizing hydrolysis risk costs little, but fosters process reliability and trust. Having sat across tables during regulatory audits and technical troubleshooting sessions, we value the knowledge exchanged, and make it our business to stay accessible and honest—whether the situation demands running an extra GC trace or supporting an emergency overnight shipment.
New users often need transition support, especially those pivoting from a less selective halophenol or entering regulated pharma supply chains. Our team draws from decades of collective technical memory to troubleshoot equipment compatibility, tweak purification steps, or update analytical protocols. These are not just services—they’re the result of many years troubleshooting the same pain points end users face.
Sustainability in chemical manufacturing involves more than ticking boxes for compliance. As demand shifts, we invest in process intensification to lower our water and energy footprint on each batch. Closed-loop solvent recovery systems now handle most of our production runs, driven by field audits and a desire to keep downstream burdens low for our partners. Every process engineer senses the pressure from environmental and regulatory groups; by tackling solvent and energy use up front, we stay ahead of future compliance issues and contribute to the broader push for greener chemical chains.
Waste streams from aromatic halogenations carry both regulatory scrutiny and community expectations. We maintain partnerships with certified local handlers to ensure all byproduct elimination meets or exceeds national standards. This commitment stems from long relationships with stakeholders in both regulatory and local community settings—in the practical world, trust comes only after showing real risk management, season after season.
As environmental impacts from specialty chemicals draw more attention, conversations with both local authorities and multinationals steer our priorities. Requests for more granular life-cycle inventory, eco-tox assessment data, or real-time emissions monitoring met us with an opportunity to grow. Our on-site labs have now implemented multi-parameter testing linked to centralized data capture, supporting not only chemical assurance but also external environmental and safety audits.
Factories run on more than technical sheets and reactor designs; trust and continuity underpin every successful client relationship. We commit energy, technical rigor, and an openness to change based on real need. Our customers value consistency as much as price-per-kilo, because repeated surprises or unexplained lot variations cost more over time.
Supply chain shocks during turbulent markets have hammered home the point—maintaining a stable production rhythm and safeguarding core supply agreements reduces risk for everyone downstream. We stockpile key starting materials based on seasonal signals from our partners; our warehouse team schedules inbound and outbound lanes with attention not just to volume but to safety and time-sensitive commitments. Having experienced the ripple effect of a missed shipment or delayed document filing, our staff understands that every incident costs credibility and, ultimately, growth opportunities for both sides.
Long-haul distribution into new markets brings its own complications—unexpected customs barriers, weather-induced shipping delays, or sudden new import documentation. Over time, we’ve streamlined our documentation pipeline, built out translation resources, and trained staff to handle sudden hiccups with transparency and urgency. These improvements spare clients hours of red tape, and more importantly, foster a sense of reliability they can pass on to their own customers.
The future of 2-Chloro-4-Fluorophenol isn’t static. Research demands and market pressures prompt us to continually ask how our synthesis approach and quality benchmarks hold up as application standards tighten. Collaborative pilots with innovators help drive new finishing technologies, purer end-product forms, and more cost-efficient synthesis chains.
Process improvement owes much to the requests and hands-on challenges sent our way. Several times a year, we trial new purification agents, test alternative feedstock sources, or tweak stepwise addition rates based on field results. This ongoing back-and-forth means our product alignment never stands still. Every new development run brings lessons, and we invest in open documentation and fair communication. The outcome—a better, more responsive supplier offering—belongs as much to those who buy our 2-Chloro-4-Fluorophenol as it does to those who make it.
No lab or production plant wants headaches from unreliable raw material quality, incomplete documentation, or lack of technical support—costs from these gaps stack up over time. By aligning our manufacturing mind-set with the realities of our partners’ needs, we aim to remove obstacles to efficient synthesis, regulatory compliance, and operational safety.
Direct ongoing interaction—built on clear, regular contact—creates genuine improvements in both product and process. Our ongoing readiness to adapt, verify, and solve challenges stands as the difference between simply selling a specification and delivering a substantial ingredient capable of meeting tomorrow’s manufacturing challenges. We bring our knowledge and production fidelity to every batch, sustaining our commitment to those building the next advances in pharmaceuticals, crop protection, and specialty chemicals.