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Methyl 2-Chloronicotinate

    • Product Name Methyl 2-Chloronicotinate
    • Alias AJ-58657
    • Einecs 613-759-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    818337

    Chemical Name Methyl 2-Chloronicotinate
    Cas Number 61486-38-6
    Molecular Formula C7H6ClNO2
    Molecular Weight 171.58
    Appearance White to light yellow crystalline powder
    Boiling Point 255-257°C
    Melting Point 53-55°C
    Density 1.33 g/cm3
    Purity Typically ≥98%
    Solubility Soluble in organic solvents such as dichloromethane, ethanol

    As an accredited Methyl 2-Chloronicotinate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250g of Methyl 2-Chloronicotinate is packaged in a sealed amber glass bottle, labeled with safety information and chemical identification details.
    Shipping Methyl 2-Chloronicotinate is shipped securely in tightly sealed containers to prevent moisture and contamination. It is typically transported as a solid under ambient conditions, classified as a chemical reagent. Proper labeling and documentation are provided, and it should be handled by trained personnel in compliance with all relevant chemical safety and transport regulations.
    Storage Methyl 2-chloronicotinate should be stored in a tightly sealed container, away from light, moisture, and incompatible substances such as strong oxidizing agents. Store in a cool, dry, and well-ventilated area, preferably in a chemical storage cabinet. Ensure proper labeling and access restriction. Use secondary containment and keep away from sources of ignition. Follow all safety regulations and handling guidelines.
    Application of Methyl 2-Chloronicotinate

    Applications of Methyl 2-Chloronicotinate in Industrial Manufacturing

    As the manufacturer of high-purity methyl 2-chloronicotinate, we support leading downstream industries with consistent supply and full technical specification backing. Below, we present authentic application scenarios based on verified end uses, focusing on distinct subsectors where this intermediate is integral to high-performance, quality-regulated processes.

    1. Pharmaceutical Pyridine Derivative Synthesis

    This intermediate is widely integrated in the active pharmaceutical ingredient (API) sector, specifically for the synthesis of compounds within the nicotinic acid derivative family. Its role centers on conversion into functionalized heterocyclic scaffolds, essential for small-molecule drug development, including respiratory, metabolic, and neurological treatments. Process chemists incorporate our material at designated reaction steps that require controlled chlorination and methyl ester functionalities to achieve precise target molecule frameworks. The chemical’s consistent quality allows for high downstream yields, critical in cGMP manufacturing environments.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practices for active pharmaceutical ingredients
    • USP & EP monograph requirements for process intermediates
    • REACH Registration for intermediate use
    • FDA DMF (Drug Master File) referenced processes

    Typical usage ratio

    • 0.8 to 1.2 molar equivalents per target molecule in heterocyclic ring construction, depending on stoichiometry in the optimized synthetic route

    Downstream process integration

    • Charged at the stage of nucleophilic substitution or esterification during stepwise synthesis of pyridine-based APIs. Materials introduced in anhydrous or controlled pH environments to ensure reactivity with minimal by-product formation.

    Final product types

    • Pharmaceutical intermediates (e.g., nicotinic acid esters)
    • Finished APIs for anti-tuberculosis, anti-inflammatory, and central nervous system drugs
    • Bulk intermediates for contract manufacturing organizations (CMOs)

    2. Agrochemical Active Ingredient Manufacturing

    Methyl 2-chloronicotinate is a preferred intermediate in the creation of pyridine-derived agrochemicals, particularly those aimed at crop protection. The industrial synthesis of select herbicides and insecticides employs this material during the functionalization stage, enabling the generation of chlorinated, nitrogen-containing heterocycles with enhanced activity against resistant pests. Downstream manufacturers rely on our batch standardization and trace purity documentation to maintain regulatory clearance and consistent end-product efficacy.

    Industry compliance standards

    • FAO/WHO specification guidelines for active ingredient production
    • ISO 9001:2015 quality management system for agrochemical intermediates
    • EU Plant Protection Product Regulation (EC) No. 1107/2009
    • US EPA tolerances for residues in food-related crop protection products

    Typical usage ratio

    • Ranges from 1 to 1.4 mole equivalents per target compound synthesis; adjusted according to proprietary formulation processes and target biological activity

    Downstream process integration

    • Dosed at the key cyclization or coupling reaction step during active ingredient build-up. Used in continuous or batch synthesis setups, often under inert atmosphere and controlled temperature to prevent hydrolysis and maximize yield.

    Final product types

    • Active herbicidal compounds (pyridine group)
    • Systemic and contact insecticides for agricultural and horticultural applications
    • Intermediate concentrates for formulation into finished crop protection blends

    3. Synthesis of Electronic Chemicals

    In specialty electronics manufacturing, methyl 2-chloronicotinate is employed as a building block for advanced pyridine-based ligands and charge transport materials critical to OLED emitter and semiconductor downstream applications. The stringent process control in this sector emphasizes trace impurity removal due to the direct impact on electrical and optical material properties. Our production integrates rigorous sampling for heavy metal and halide content, supporting downstream device fabricators in maintaining functional layer uniformity and durability.

    Industry compliance standards

    • RoHS Directive (Restriction of Hazardous Substances, EU 2011/65/EU)
    • IECQ QC 080000 hazardous substance process management
    • ISO 14001:2015 Environmental Management for specialty chemicals
    • Client-specific electronic grade material certification (trace metal and chloride limits)

    Typical usage ratio

    • 0.5 to 1.5 weight percent in ligand precursor formulation, determined by target molecular structure and intended electronic function

    Downstream process integration

    • Reacted at pre-polymer or ligand synthesis stage under strictly anhydrous conditions; filtered and purified before use in thin film or device-grade compound formation

    Final product types

    • OLED intermediate ligands and transport layers
    • Electron-transporting and hole-blocking materials for organic electronics
    • Pyridine-functionalized semiconductors for optoelectronic devices

    4. Intermediate for Veterinary Medicine Synthesis

    Leading veterinary API facilities utilize methyl 2-chloronicotinate as an intermediate in synthesizing specialty anti-parasitic and anti-bacterial agents based on pyridine frameworks. The selection of our raw material ensures adherence to strict veterinary pharmacopeia guidelines, where residue control and traceability are critical due to food animal exposure. We supply material with full batch traceability, and technical teams provide ongoing process support for consistent, requalification-compliant batches.

    Industry compliance standards

    • VICH GL18 Good Manufacturing Practice for veterinary pharmaceuticals
    • European Pharmacopoeia (Ph. Eur.) monographs for veterinary APIs
    • US FDA CVM guidelines for animal drug intermediate safety
    • ISO 22716:2007 (where required for production hygiene)

    Typical usage ratio

    • Generally 0.9 to 1.3 mole equivalents, depending on the API and reaction design; batchwise variation controlled under cGMP protocols

    Downstream process integration

    • Used during initial or intermediate coupling and ring-modification steps. Material is introduced after initial precursor formation and before final API ring closure, assuring high purity in the susceptible heterocyclic segment.

    Final product types

    • Veterinary antibiotics with pyridine core (e.g., specific anti-coccidial agents)
    • Anti-parasitic bulk intermediates
    • Ready-to-formulate active ingredient stocks for veterinary medicine manufacturers
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    Certification & Compliance
    More Introduction

    Methyl 2-Chloronicotinate: An In-Depth Look at Our Manufacturing Expertise

    Introduction to Methyl 2-Chloronicotinate

    Within our production halls, certain chemicals draw more attention than others for their impact across fields. Methyl 2-Chloronicotinate sits high on that list, especially among chemists in pharmaceuticals, crop protection, and advanced intermediates development. We manufacture this compound using fully integrated processes, emphasizing purity at every step. Decades of chemical synthesis experience show that moving from raw inputs to finished Methyl 2-Chloronicotinate demands precision and vigilant process control.

    Our engineers and operators know the challenges faced during chlorination and esterification. From small-batch research requests to multi-ton outputs, operations must stay stable, reactions complete without side-products, and waste streams minimized. In our labs, we have steam-jacketed reactors purpose-built for halogenated pyridines. Unlike generic compound resin beds you might see in a trading warehouse or from a packaging middleman, our lines handle both early discovery and full-scale logistics. Our team closely tracks every variable—from raw material lot histories through intermediate purity checks to finished product filtration. That investment pays off in the consistent results we deliver to innovators worldwide.

    Product Features: More Than Just Molecular Structure

    Methyl 2-Chloronicotinate is much more than a CAS number or molecular formula. Under untrained eyes, it appears as a light yellow to pale crystalline solid, sometimes mistaken for other methyl chloronicotinates. The reality: minor differences in trace impurities, isomeric forms, or residual solvents shape downstream applications. Our process does not cut corners at the purification stage. By leveraging vacuum distillation and optimized crystallization, we secure a minimum purity of 99.5% in the final product. This ensures that synthetic paths relying on precise reactivities—such as selective aminolysis or Suzuki coupling—proceed efficiently and predictably.

    It’s tempting to view specialty intermediates like this as simple stepping stones. Yet any scientist who has watched a late-stage pharma run stall from a hard-to-remove impurity recognizes the real value of well-made chemical building blocks. We’re reminded on every project that scale magnifies small problems—exactly why our team maintains close, real-time QC oversight for each lot. Techniques like gas chromatography and NMR cross-check every shipment. Whether academic researchers or pharmaceutical giants, customers return not from habit, but from hard-earned trust that each drum or bottle contains exactly what the label promises, free from ambiguous over-labeling or “rough estimate” analysis.

    Integrating Customer Experience into Product Development

    Making Methyl 2-Chloronicotinate goes beyond published literature or textbook methods. Every production batch benefits from open dialogue with end users and application chemists. One memorable example involved a client whose downstream process needed ultra-low halide content. Though most users tolerate trace halides, for them, anything over 100 ppm stalled their coupling reaction. Our technical team worked with R&D on refining washing protocols, monitoring residual salts at the ppm level. That iterative approach, informed by real feedback and willingness to adapt,’s built into our culture.

    Our manufacturing philosophy borrows from the lean process improvement attitude seen in advanced industries. Too many stories circulate about shipments delayed by unexpected color changes or sticky residues. Downtime hurts both project timelines and credibility. Working directly with pharmaceutical and agrochemical developers, we’ve refined both packaging and shipment routines. Desiccant-sealed containers, immediate vacuum-packing if ambient humidity risks clumping—the sort of small details often ignored by brokers—mean unpacking our product delivers an exact, reproducible starting point. This mindset only comes from owning the full production cycle, from molecule design to warehouse dispatch.

    What Sets Our Methyl 2-Chloronicotinate Apart

    Methyl 2-Chloronicotinate isn’t rare in the global market. Multiple paths exist to this molecule, with quality differences visible only to specialists. Some make it using direct methylation of 2-chloronicotinic acid, others choose esterification routes from methyl nicotinate precursors and controlled chlorination. Early in our company’s history, we saw how small tweaks affected batch-to-batch consistency. Using top-tier separation technology and real-time spectral feedback, we hit a repeatability that sets our output apart—no extra effort by customers needed to “clean up” supplied material or run time-consuming pre-treatments.

    Downstream chemistry demands this level of dependability. In synthesis of biologically active derivatives, one lot too far out-of-spec risks not just a failed experiment but thousands of lost research hours. Our operations framework follows statistical process control, with each shift empowered to pull and test aliquots at each step. By the time a finished batch heads toward drum filling, it has passed almost a dozen independent checkpoints, not just a uniformity glance. Chemical handling is unforgiving of shortcuts, and every operator here internalizes that lesson.

    Specifications Driven by Application, Not Market Clichés

    We manufacture to a grade that matches practical applications. Common specs for Methyl 2-Chloronicotinate rely on color, odor, melting point, and polymorphic stability. Our readings show melting points clustered tightly, between 41 and 43°C, supporting both bulk transfers and bench-scale dispensing. Solubility matters just as much. The product dissolves readily in ethers, esters, and certain polar aprotic solvents (THF, acetonitrile). Water solubility remains limited—sometimes a selling point in separation flows, sometimes a hurdle to overcome by creative process design. These facts anchor our advice to partners shaping their own formulations.

    Trace analysis forms a second pillar of specification. Halide content sits well below 200 ppm, with typical batches under 100. Acid residues and methyl nicotinate carry-overs stay far below recognition thresholds. No batch leaves our plant without a backing record of NMR, GC-MS, and powder X-ray diffraction, available on request. For customers nesting Methyl 2-Chloronicotinate into high-throughput libraries, mass spec fingerprinting confirms batch identity and linkage to documentation. We have seen lab teams track down false leads in research, ultimately pointing to a subtle contaminant from an overseas supply chain. That’s why our shipment records trace each lot end-to-end—a hardwired accountability standard.

    Working With Real-World Chemical Users

    Our team understands that purchasing for a research institute differs from sourcing for plant-scale production. Technical support spans more than paperwork or MSDS exchanges. When customers run scale-up trials or need advice on optimizing solvent systems, our technical staff consults chemist-to-chemist. Sharing our experiences hasn’t just deepened professional relationships but also helped us innovate internally. Sometimes, a customer highlights a challenge—say, reactivity drift or storage stability—that signals a chance for us to tighten controls or rethink a process step. Genuine feedback loops matter more than any formulaic web catalog listing.

    This approach pays off in greater safety as well as performance. Methyl 2-Chloronicotinate demands careful handling—everyone on our floor receives yearly hazard and PPE training. We maintain dedicated, ventilated storage zones to avoid vapors or cross-reactivities. From drum to laboratory bottle, labeling matches global standards, but our real focus falls on documented training and open communication with all handlers and users. Chemists with questions about process compatibility or problem-solving never get routed to generic sales channels—we believe technical input belongs at every transaction.

    Impact on Advanced Synthesis: Our Observations

    Most users slot Methyl 2-Chloronicotinate into syntheses of heterocyclic drug precursors, agricultural compounds, or fine chemicals. We’ve watched its demand rise in drug lead optimization, where even a trace impurity might skew biological testing. As a manufacturer, sitting in on customer retrospectives has shown how products like ours push innovation: a pure, well-characterized batch lets discovery chemists skip the hesitations and guesswork. In the hands of peptide chemists or medicinal chemistry teams, reliable reactivity can compress months of trial-and-error development into a few clear, successful experiments.

    We see similar themes among agrochemical users. Field trials don’t allow for broad error bars; material needs to meet specification to avoid time lost on inconclusive results. Our product helps cut through delays—if a field team screens twenty analogues, wide process windows and robust starting materials separate signal from noise. This kind of progress isn’t abstract to our staff. It circles back during every feedback call or review session. Many global crop-protection breakthroughs rest on foundations built by specialty compounds just like this. That sense of partnership keeps us honing our production processes further.

    Differences from Similar Products

    Not all methyl chloronicotinates behave the same in practice. Chemists who tried sourcing from traders often recount lapses—incomplete reactions, color instability on storage, or unexplained haze developing in solution. Starting from in-house purified 2-chloronicotinic acid, our routes avoid problematic by-products. Analytical records show chemical stability over extended shelf periods, even at ambient temperatures. Unlike some quick-batch producers, we don't settle for partial conversion rates. Each run meets tight purity bands—customers get product that amps up downstream yields, whether making pyridinyl-based pharmaceuticals or dye intermediates.

    Over the past decade, we’ve fielded requests for Methyl 2-Chloronicotinate both as a final product and as a precursor to further custom synthesis. Those customers look beyond basic specs. They want traceability, reproducible physical form (no bulk caking), and clear impurity profiling. A few have shared stories about supply chain inconsistencies—one week, a light-colored powder; the next, an off-odor or unexplained residue. That doesn’t happen here. Our containment, packaging, and shipping procedures draw directly from best practices in high-assurance pharma manufacturing—not just warehouse repackaging. Every bottle rolls out stable, with batch documents attached and support on hand for unusual applications.

    Environmental Commitment and Process Responsibility

    Careful stewardship matters as much as product metrics. Manufacturing Methyl 2-Chloronicotinate safe for workers and the environment shapes our process decisions. We’ve retrofitted waste heat recovery into distillation lines, lowering energy needs for vacuum operations. Halogen management uses closed-system scrubbing, with effluent monitored against government safety targets. Spent solvents get regenerated and either reused or disposed according to strict regulatory controls—cutting our waste generation below accepted industry benchmarks.

    On the shop floor, operators receive regular refreshers not merely as compliance, but as a company-wide habit. Wherever possible, solvent use shrinks, and replacement with lower-hazard alternatives gets prioritized. Batch records feed directly into environmental audits, making improvements visible plant-wide. For users in regulated sectors, this transparency extends to supply-chain disclosures and lifecycle analyses. The outcome: partners take confidence in both product performance and the “invisible” environmental footprint behind every shipment.

    Looking Forward: Continuous Improvement in Fine Chemicals

    Each year, requests for higher-purity, application-tailored Methyl 2-Chloronicotinate climb. Our response involves more than scaling up tank size or boosting throughput. We continually invest in upgrading our analytics: faster GC-MS detectors, more robust NMR services, and sampling machines that cover more run-time variables. Operators see change from both equipment upgrades and process documentation. Production floor staff propose tweaks, often saving batch time or avoiding inefficiencies. Quick turnaround for feedback and corrective action reflects our deep manufacturing culture—continuous learning beats one-time fixes.

    Increasingly, we get drawn into earlier stages of R&D, collaborating with researchers on how to integrate our products directly into automated synthesis routes. This dialogue has led to formulation tweaks—tighter particle size controls for solid phase, special solvent batches, or even different packaging geometries for robotic handling. Every new challenge shapes future production flows, strengthening our ability to support the next wave of scientific breakthroughs.

    A Manufacturer’s Perspective: Why Integrity Remains Core

    As a manufacturer, our perspective on Methyl 2-Chloronicotinate never narrows to numbers or stock keeping. We see the hands-on work it enables: scientists bringing new medicines to market, agronomists staking crop protection on cutting-edge actives, startups building the next generation of electronic materials. Our team’s direct involvement in each batch—fault-finding, improvement, user support—grounds us in reality. Problems don’t get handed off. Every shipment’s success or setback translates back into our own processes and drives continuous change.

    Delivering on these principles insulates our partners against unnecessary surprises. With new requirements evolving, from regulatory compliance to stricter sustainability targets, agility and transparency matter even more. We never outsource core production or rely on generic third-party packing. Our commitment runs deeper than just a certificate or compliance checkbox—it’s echoed in every technical consultation, every response to a challenge, and every step from raw input to filled drum. That dedication cements our role as a trusted manufacturer, not a transient link in a distribution line.

    Conclusion: The Value of Authentic Manufacturing

    Producing Methyl 2-Chloronicotinate reflects our strongest values—careful stewardship of both product and process, deep technical engagement, and a constant willingness to learn from real-world users. Every batch embodies lessons from decades in chemical manufacturing, thousands of feedback cycles, and a shared mission to build quality into every stage. We stand by these commitments, engaging openly and solving problems at source, so that each shipment moves science forward—not just in a lab, but in the wider world of discovery and application.