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HS Code |
220222 |
| Product Name | 2,6-Dichloro-3-(Trifluoromethyl)Pyridine |
| Cas Number | 4300-97-4 |
| Molecular Formula | C6H2Cl2F3N |
| Molecular Weight | 232.99 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Purity | Typically ≥98% |
| Boiling Point | 192-194°C |
| Density | 1.51 g/cm³ |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Flash Point | 74°C |
| Refractive Index | 1.500 - 1.510 |
| Smiles | FC(F)(F)c1cc(Cl)nc(Cl)c1 |
As an accredited 2,6-Dichloro-3-(Trifluoromethyl)Pyridine 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 2,6-Dichloro-3-(Trifluoromethyl)Pyridine, tightly sealed with a tamper-evident cap and hazard label. |
| Shipping | 2,6-Dichloro-3-(Trifluoromethyl)Pyridine is shipped in tightly sealed containers to prevent leaks and contamination. It should be transported under ambient temperature, labeled as a hazardous material, and handled according to appropriate chemical safety regulations. Proper documentation and protective packaging ensure the chemical reaches its destination safely and compliantly. |
| Storage | Store **2,6-Dichloro-3-(trifluoromethyl)pyridine** in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Keep the container tightly closed and protected from light and moisture. Use proper chemical storage cabinets if available, and ensure appropriate labeling. Always follow standard laboratory safety protocols and local regulations for hazardous chemicals. |
Applications of 2,6-Dichloro-3-(Trifluoromethyl)Pyridine in Industrial ManufacturingAs the original manufacturer of 2,6-Dichloro-3-(Trifluoromethyl)Pyridine, we supply this specialty intermediate to global B2B clients requiring advanced building blocks for regulated and large-scale chemical synthesis. Our product serves as a key raw material in select downstream sectors where critical performance and compliance standards must be achieved throughout production. 1. Crop Protection Active Ingredient ManufacturingMajor agrochemical companies incorporate this pyridine derivative as a core intermediate during multi-step synthesis of modern herbicide and fungicide actives. Its electron-deficient aromatic structure promotes necessary reactivity in nucleophilic aromatic substitution, shortening the route for critical molecule construction with increased process safety and yield. Industry compliance standards
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2. Pharmaceutical Intermediate SynthesisSpecialty pharmaceutical manufacturers employ this compound as a key aromatic building block in advanced intermediate production, specifically for heterocyclic active pharmaceutical ingredients. Its structural motif facilitates stepwise introduction of trifluoromethyl and chloro groups essential for medicinal chemistry targeting CNS and anti-infective drugs. Industry compliance standards
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3. High-Performance Polymer Monomer ProductionAdvanced polymer manufacturers rely on this halogenated pyridine to prepare specialty monomers that impart chemical resistance and thermal stability in fluorinated engineering plastics. Its unique substitution pattern supports efficient co-polymerization and downstream derivatization essential for high-end application requirements. Industry compliance standards
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4. Electronics Industry: Liquid Crystal Precursor SynthesisLeading electronics chemical producers use this compound in the production of advanced fluorinated pyridine-based liquid crystal precursors. Its precise substitution enables the tailored refractive indices and dielectric anisotropy necessary for high-definition flat panel displays and OLED technology. Industry compliance standards
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5. Fine Chemical Synthesis for Specialty Agrochem IntermediatesManufacturers of next-generation agrochemicals integrate this pyridine derivative at the early intermediate stage for synthesizing high-value, patent-protected compounds. Its structural integrity ensures the selective introduction of fluoro and chloro functionalities—critical for downstream biological activity and product differentiation. Industry compliance standards
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For decades, daily work at the reactor and close conversation with our customers have shown that not all intermediates are built the same. As the chemists behind the production, we see what it takes to deliver a pyridine derivative that consistently does the job in tight synthetic routes. 2,6-Dichloro-3-(Trifluoromethyl)Pyridine (CAS 86604-75-3) leaves a mark on several sectors, especially agrochemical and pharmaceutical manufacturing. Consistency always sits at the center of these applications. Trace levels of impurities, variation in crystallinity, even moisture content — these seemingly small details spell the difference between a plant running smoothly and one bringing headaches for weeks.
From the start, we chose to maintain direct control over every production stage. Instead of offloading reactions to subcontractors or buying intermediates through several hands, our team oversees everything from the selection of feedstocks to the last drum filled on the loading dock. Each reactor batch runs under controlled conditions using proprietary chlorination and trifluoromethylation protocols, which we have refined over years of trial and improvement. We rarely see outside traders paying attention to the technical nuance that practitioners on the production line pick up. This experience led us to focus as much on robust reaction kinetics as on purification techniques able to minimize the byproducts certain synthetic routes seem unable to avoid.
Most clients who choose our product look for the standard grade 2,6-dichloro-3-(trifluoromethyl)pyridine with a purity above 98%. While the target purity number matters, experience tells us that controlling impurity types matters just as much. Over-oxidized species, low-boiling impurities, and specific halogenated byproducts can disrupt downstream steps. Our batches include comprehensive analytical profiles: HPLC, GC-MS, and moisture measurements. Chromatograms don’t just check a box; they help our customers predict behavior in coupling reactions, reductions, or further halogenations.
The physical state arrives as a white to off-white crystalline solid, sometimes with a faint yellow tinge. We standardize bulk density and limit particle size variation to reduce dust and improve handling — a practical detail that downstream reactors appreciate, especially where precise dosing matters. Each drum is lined and closed under controlled humidity. Packaging sizes range from pilot-scale 20kg kegs to full-scale 200kg composite drums, all compliant with shipping standards for dangerous goods. Each lot number can be traced down to the specific day of charge and purification, giving reassurance to those who have ever spent days tracking down a stray impurity.
In the agrochemical industry, we often engage with teams developing new herbicides and insecticides. Many pyrazole, pyridine, or triazine derivatives rely on 2,6-dichloro-3-(trifluoromethyl)pyridine as a building block. Substituting even minor deviations in isomer ratios or trace impurities can ripple through to the final biological activity of the end compound. We learned this through years of collaborative troubleshooting around residues, yields, and regulatory compliance for global approvals. Our analytical support lets R&D groups anticipate downstream behaviors in both research labs and commercial synthesis.
Pharmaceutical partners put purity at the forefront, but our conversations with process chemists revolve just as much around supply reliability, batch uniformity, and after-sales data support. We have seen how a missed delivery of an intermediate can hold back entire multi-ton API campaigns. Supporting these lifecycles means safeguarding production with multi-site warehousing, redundant raw materials contracts, and the willingness to provide real-time batch data for regulatory filings or troubleshooting.
Over time, specialty chemical startups reached out looking for consistent intermediates in electronic materials, especially for liquid crystal or OLED industries. We work with their teams directly, offering technical data and trial quantities for new process validation. Our technical staff has even assisted teams in mapping out impurity carryover through downstream electronic-grade synthesis. Our background as a manufacturer, not a broker, lets us respond quickly to process changes that competitors often struggle to meet.
Walking the plant floor every week reminds our team how process repeatability, batch monitoring, and technical transparency shape the real user experience. Not all products on the market come from direct synthesis — brokers and repackagers cannot offer the data lineage or supply certainty that direct manufacturers do. That difference surfaces when a partner requests chromatographic fingerprints or batch-specific impurity breakdowns on short notice. Many distributors cannot furnish these numbers, and this limitation can become a real production risk to our customers.
Our hands-on experience also shows in our response to raw material volatility. We constantly monitor supply security for upstream chlorinated precursors and fluorination reagents. This vigilance, paired with a full analytical archive, helps us flag drift in trace impurity loads before it ever hits our customer’s reactors. The feedback loop with our downstream partners sharpens our understanding of how even minor process tweaks influence end-use performance. Few resellers have the technical staff to hold face-to-face conversations with process engineers or deliver real-time adjustment of reaction conditions.
Some manufacturers choose the easiest possible route to sales: bulk sales with the lowest possible cost structure. Our approach relies on batch-to-batch reproducibility, data traceability, and human support for real-world process questions. If the plant chemist calling our technical support line worked through the night troubleshooting a failed batch, our people recognize the urgency. Rapid, transparent data support and willingness to share test records are not optional extras; they’re standard expectations, born from personal investment in each kilogram shipped.
In practice, sourcing directly from our plant gives end-users specific and often overlooked benefits. Our production logs for this pyridine derivative stretch back years, allowing us to spot patterns and help customers troubleshoot recurring formulation issues. When a multinational crop science firm faces a regulatory review, we provide full certificates of analysis and data on past shipments, right down to impurity profiling. That willingness to share information, and to stand behind it, comes from our seat at the reactor and not from an office removed from production.
Our lab staff conducts method development tailored to customer requirements, testing synthetic compatibility in parallel with client samples. When someone struggles with a particular reaction bottleneck — persistent color, filter blockages, or unexpected side products — our chemists can replicate the problem in-house, identifying whether the issue traces to the intermediate or downstream processing. This process is only possible when primary synthesis, purification, and analytical labs work in close proximity and under direct management. By contrast, companies that lack their own production facilities can run into delays, as they seek answers from fragmented suppliers that may not share either the data or process knowledge required to get production back on track.
Regulatory scrutiny falls heavily on pyridine derivatives, with evolving demands on trace impurity thresholds and full synthetic disclosure in key jurisdictions. Direct manufacturing means our customers access a data archive covering multi-year trend analysis. We track residual solvent loads down to parts per million and monitor for known mutagenic impurities. Many clients tell us that these concrete details speed up their product registrations and reduce project risk. This sort of material support is often lacking when a product trades hands multiple times before reaching an end user.
Every breakthrough compound — especially in modern agrochemical and pharmaceutical research — comes from a foundation of reliable intermediates. Over the years, we have learned to view our production lines not just as facilities but as extensions of our customers’ own R&D setups. We welcome joint process development, from targeted impurity reduction to developing custom purification protocols. Our technical group routinely collaborates with process engineers and synthetic chemists, addressing everything from kilo-lab scale evaluation through to full-scale campaigns.
Our on-site experts conduct root cause analysis, blending practical factory experience with laboratory insight. If a customer changes a downstream synthetic route or notices a new peak on their chromatogram, we provide real-time feedback and process adjustment support. Only direct presence at the reactor, and years of experience with specific process bottlenecks, allow this degree of technical responsiveness. Our team understands how innovation often leans on prompt, detailed feedback, especially when scaling up or shifting feedstock lots.
Making high-value pyridine intermediates in a modern regulatory and environmental landscape never stays static. Our plant has faced its share of raw material price fluctuations, energy cost surges, and tightening emissions limits. Reactive halogenated feedstocks present hazards that require specialized containment and safety protocols — learned firsthand from plant upgrades, incident reviews, and staff training. Rather than outsourcing the problem, we invest in in-house treatment and waste minimization, directly reducing the risk faced by our downstream customers. We have installed advanced scrubbing systems and run regular safety drills, aiming to keep compliance central to daily operations.
Some manufacturers struggle with consistency as scale increases. Tightly controlled small-scale runs often produce cleaner material, but introducing large-scale heat transfer, mixing, and reflux can shift impurity profiles. Our operation tracks every scale-up phase, continuously refining conditions to keep impurity fingerprints in line with customer expectations. Customers dealing with research-scale procurement see that the specifications match those of multi-ton shipments, avoiding nasty surprises during scale-up campaigns.
Long-term relationships with customers and suppliers alike help secure upstream stability. Where some distributors pivot from one-lowest-cost supplier to the next, we negotiate long-term contracts and maintain buffer stocks of critical reagents, insulating downstream partners against severe supply shocks. Every lesson from past disruptions shapes practical policies for the present — building flexibility into delivery schedules and warehousing multiple drum sizes to accommodate customer-specific inventory needs.
Shipping a hazardous intermediate like 2,6-dichloro-3-(trifluoromethyl)pyridine takes more than ticking off regulatory transportation boxes. We train our logistics staff directly, exclude third-party packagers from the process, and test every batch before shipment. Our drums and kegs use high-resistance liners and tamper-evident closures, reducing both storage risks and contamination. Refrigerated storage, temperature indicators, and humidity monitoring are available for customers with particularly sensitive downstream processes.
Timely delivery means real risk mitigation for buyers working under tight production windows. We maintain close coordination between plant and warehousing, providing up-to-date reporting on shipment progress and immediate response to inventory changes. Our clients often share stories of past logistical failures when relying on indirect sellers — missing paperwork, poorly stacked containers, or slow customs response. Years of direct shipment experience let us anticipate and head off most of these pitfalls before they materialize.
Our QC lab takes pride in rigorous testing, and partners always receive certificates matched to batch numbers and production dates. We regularly perform third-party independent verification, sharing unrestricted chromatographic data, spectral fingerprints, and moisture titrations. Customer audits — whether remote or on-site — have open access to production records and quality systems, strengthening both regulatory filings and technical partnerships. Over the years, this approach paid off: our customers’ requests during regulatory inspections or in-house troubleshooting never meet a wall of missed paperwork.
Technical support never stops at point of sale. If a customer identifies an unknown impurity or recurring process challenge, our analytical and production chemists collaborate, sharing raw data and investigating alternative purification techniques. Supporting our partners means standing on the same factory floor and delivering evidence-based process insight, rather than quoting abstract data tables detached from practical outcomes.
Each kilo produced comes with the direct backing of our production, quality assurance, and logistics teams. We understand the stresses and real-world constraints facing downstream chemists and plant managers; the long nights, stringent timelines, and tight regulatory expectations shape our support every day. Should a challenge arise — whether process, purity, or logistics — we tackle it with the same urgency as if it were on our own floor.
Direct experience teaches that reliable intermediate supply comes down not just to theoretical product specs, but to consistent, reproducible, and accountable operations. Our 2,6-dichloro-3-(trifluoromethyl)pyridine reflects decades of practical problem-solving in chemistry, supply chain, and customer service. By standing behind every shipment, providing real data, and listening closely to users at every level, we help partners rely on both the material and the people delivering it.