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HS Code |
417698 |
| Product Name | 6-Chloronicotinamide |
| Chemical Formula | C6H5ClN2O |
| Molecular Weight | 156.57 g/mol |
| Cas Number | 610-22-6 |
| Appearance | White to off-white solid |
| Melting Point | 148-152°C |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Smiles | C1=CC(=NC=C1Cl)C(=O)N |
| Synonyms | 6-Chloropyridine-3-carboxamide |
| Inchi | InChI=1S/C6H5ClN2O/c7-5-2-1-4(6(8)10)3-9-5/h1-3H,(H2,8,10) |
| Storage Conditions | Store at room temperature, keep container tightly closed |
As an accredited 6-Chloronicotinamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 6-Chloronicotinamide, tightly sealed with a screw cap, labeled with hazard and identification information. |
| Shipping | 6-Chloronicotinamide is shipped in tightly sealed containers to ensure safety and stability during transit. It is packed according to standard chemical handling regulations, typically within cushioned, moisture-proof packaging. Shipping is done through certified carriers with appropriate documentation and labeling, complying with all relevant local and international transportation guidelines for hazardous materials. |
| Storage | 6-Chloronicotinamide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of moisture. Avoid exposure to incompatible materials such as strong oxidizers. Store at room temperature, typically between 2–8°C if recommended, and ensure proper chemical labeling. Always follow institutional safety guidelines and local regulations for chemical storage. |
Applications of 6-Chloronicotinamide in Industrial ManufacturingAs an established producer, we recognize that 6-Chloronicotinamide serves vital roles in targeted industrial sectors. Our material achieves consistent results in regulated, highly technical downstream processes. Below we detail its genuine use in each field, outlining specific regulatory standards, processing stages, formulation ranges, and corresponding finished product categories. 1. Pharmaceutical Intermediate for Nicotinic Acid Derivative Synthesis6-Chloronicotinamide is a critical intermediate in the multi-step synthesis of high-purity pharmaceutical compounds based on pyridine and nicotinamide scaffolds. This raw material is especially used in the synthesis of advanced oral antidiabetic agents and antihypertensive active pharmaceutical ingredients. Its chlorine functionality enables specific coupling and substitution reactions, essential for obtaining well-defined active pharmaceutical ingredients in compliance with global health standards. Manufacturers apply strict control over residual content and byproduct removal, as required by regulatory filings and quality assurance targets within the GMP pharmaceutical sector. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Crop Protection Synthesis: Pyridine-based AgChem IntermediatesAgrochemical producers use 6-Chloronicotinamide as a building block in the design of systemic fungicides and selective herbicides, particularly those relying on chlorinated pyridine motifs to enhance activity and soil stability. These applications demand strict raw material traceability and batch uniformity to ensure downstream reaction consistency and environment-safe residue profiles. Leading companies incorporate this intermediate to achieve functionalized agrochemical actives with controlled application rates and globally accepted regulatory profiles. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Material Science: Functional Monomer for Specialty Polymer SynthesisIn the specialty polymer sector, formulators employ 6-Chloronicotinamide as a specialty monomer or functional chain extender, utilizing its amide and chloro functionalities for site-selective polymer backbone modifications. Its presence introduces polar sites, improving compatibility and performance in engineering resins and specialty copolymers. Quality departments implement strict input controls and real-time in situ monitoring of polymerization reactions to guarantee the intended property enhancement in the finished material system. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemicals: Intermediate for Dye and Pigment ManufactureSpecialty dye and pigment manufacturers integrate 6-Chloronicotinamide as a precursor during selective amide functionalization and halogen-exchange-induced color tuning in pyridine-based dye systems. Its reactivity supports fine adjustments in chromophore characteristics, further enabling tight control of hue, fastness, and solubility profiles demanded by high-performance pigment clients in textiles, plastics, and inkjet ink markets. Downstream operations demand well-defined residual halide control and batch impurity mapping for color consistency across production runs. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Day after day inside our production facilities, 6-Chloronicotinamide passes through rigorous synthesis and handling steps. We first scaled up this compound not for fanfare, but to meet the rising demand among innovators in crop protection and pharmaceuticals. The molecule itself, C6H5ClN2O, comes with a reputation built on reliability and reactivity; chemists in both segments often find 6-Chloronicotinamide is a more selective starting material than many closely related chloropyridine derivatives.
We recognize that growers and formulators usually target efficiency. Synthetic requirements for modern pesticides no longer tolerate high impurity levels, especially in core intermediates. To that end, we commit to delivering product with consistent purity, batch after batch, supported by full HPLC trace records and known synthetic pathways. Experienced users in pharmaceutical R&D have told us that minor variations in critical reagents raise headaches late in development. Working directly at the manufacturing level, we avoid short-term supply fluctuations and scale-up problems that sometimes catch distributors off guard.
At the plant, our staff often hear from procurement and technical teams tired of uncertain origins and inconsistent analysis. We commit resources to establish traceability all the way from raw material handling through each reaction stage, right down to finished packaging routines. Every lot comes off the line with audited records—nothing sits in a generic sack marked only by a lot code. We routinely partner with QC chemists to check not just identity, but water content, residual solvents, and even minor color differences that can hint at early process drift.
In practice, procurement seldom has the luxury to chase down minor discrepancies. Smaller labs—especially in research, contract formulation, or agrochemical pilot production—often complain about delays caused by unverified third-party intermediates or old samples changing hands too many times. They value a direct link: consistency shaves days off busy project timelines, and batch failures drop when you can question the chemist or engineer behind the process. This ground-level knowledge allows faster troubleshooting or tuning to meet new formulation standards.
Chemists faced with developing new actives or optimizing existing routes want to choose a starting material that balances handleability, safety, and downstream reactivity. Among several chloronicotinamide options—3-chloro, 4-chloro, and 6-chloro—each has its own quirks in performance and cost. We invested to support 6-chloro because its position allows more straightforward access to certain pesticide structures, especially those needing precise amide functionality without introducing regioisomeric byproducts.
Novel insecticides and anti-infective agents often require that amide nitrogen right at position 3 or 6 in the pyridine ring. Without a well-characterized supply of the right precursor, teams spend excess time building inefficient routes. By delivering high-purity 6-Chloronicotinamide, we help reduce unwanted side-reactions in Ugi, Suzuki, or Buchwald couplings further down the pipeline. Also, the specific chlorination at position 6 reduces off-target halide exchange, removing headaches tied to multi-step synthesis runs.
A production run is not just about placing bulk into drums. Our crew pays attention to what customers report from their pilot batches—details rarely make it into big literature reviews. For example, in formulations targeting high activity toward sap-feeding pests, trace iron or copper ions from substandard chloronation catalysts can poison the catalyst loads downstream. We use high-purity reagents and dedicate separate lines for chlorination to minimize trace metals, beyond what broad regulatory standards demand.
Each lot shipped off our lines has its own analytical footprint. After hundreds of cycles, subtle variables—like slightly off gas flow or aging filter material—can cause small shifts in melting point or IR spectra. We keep records of such analytical signatures. For chemists in the lab, the difference between 99.5% and 98% purity might seem academic, but on a production scale, a few tenths of a percent affect yield and quality control. Over time, repeat customers benefit by not needing to recalibrate for impurities, since off-odors or yellowing—sometimes reported with lots passing through loose distribution networks—don’t show up in lots coming fresh from our reactors.
Some clients ask for tighter controls than typical trade standards. With our in-house reactor setup, we can produce material in multi-kilogram lots with NMR, HPLC, melting point, and GC-MS documentation included, and respond rapidly to requests for specific water content or particle size. Unlike trading hubs or generic warehousing, scaling up or down stays feasible without the long scheduling delays. This helps specialty manufacturers or smaller formulators avoid the cash flow drain and stability risks seen with months-long storage or double-handling common in trader networks.
Many crop scientists designing next-generation insecticides approach us looking for direct support using 6-Chloronicotinamide as a building block. Conversion into nicotinoid actives such as imidacloprid depends on the predictable introduction of the amide function at the right ring position. A slow shipment or out-of-spec lot can delay screening and ramp-up by weeks: in commercial agriculture, timing of product launches can make or break market entry. Pharmaceutical teams echo similar needs, albeit against an even tighter quality regime, especially if material could reach clinical investigation.
As a core intermediate, this compound integrates cleanly into routes for both agrochemical and drug actives. Contract manufacturers in both segments pointed out difficulties sourcing 6-Chloronicotinamide that meets narrow residual solvent and heavy metal profiles for registration purposes. We adopted routine ICP-MS and extended drying cycles for this reason. Output quality rises not from hope, but from process discipline—daily, milligram-level attention pays returns in large-scale validation campaigns.
Customers tackling biologically active targets say that subtle impurities, which are allowed under food-grade norms, shift biological activity or complicate purification once actives scale up past the pilot stage. Instead of corner-cutting on specifications, our work crews implement full clean-downs and scheduled line audits after every major lot. Since we operate the reaction suites ourselves, off-spec material doesn’t trickle into the system; reprocessing can start that day rather than after weeks of distributor wrangling. A steady flow of consistent batches lets downstream partners move faster, test harder, and sometimes patent new routes without delays from supply chain hiccups.
As chemical manufacturers, we face constant pressure to optimize costs while delivering the technical support real users expect—not just big brand logos or glossy data sheets. Contract formulators, especially in regulated markets, say that unknown or shifting supplier chains give them the most issues: casual trading layers sometimes shuffle stock with inadequate tracking. That reduces the comfort level for teams needing detailed documentation and real answers about origin, synthesis, or contaminant profiles.
Our edge comes from hands-on supervision of each production step. For 6-Chloronicotinamide, this allows us to respond quickly if synthesis steps drift or require retuning. Over the last decade, customers in Asia and the Americas have reported that direct manufacturer lines reduce the periodic surprises seen with imported material stored through hot summer months or slow customs releases. From our side, repeat business grows not from lowest price per kilo, but from proved reliability and technical dialogue—particularly as regulatory and patent scrutiny only intensifies in this space.
Strictly as manufacturers, we also see growing concern over sustainable sourcing and footprint reduction. While some intermediates can move around the world several times before use, a close loop between plant and user minimizes storage, shrinkage, and off-plan transport. For environmentally focused buyers, this gives a smaller footprint and simpler compliance without the unknowns tied to older or batch-mixed warehoused lots.
Developing a sustainable supply chain for 6-Chloronicotinamide remains an ongoing task, shaped as much by user partnerships as by clever process engineering. Over the years, our production engineers have swapped detailed lab notes with chemists working on everything from resistance-breaking insecticides to new heterocyclic candidates for antivirals. These dialogues sharpen both process reliability and product performance; last year, a major user flagged a subtle impurity that traced back to a minor tweak in our chlorination solvent ratio. The fix was simple, but only surfaced due to a direct feedback loop — not because of standard COA review or after-the-fact complaints.
Far from being disconnected from the end use, our team gets insights from the ground. Formulators often propose tweaks in grind size, bottle type, or even label design based on field stability tests. We treat each suggestion as part of a process to co-engineer both product and experience. In this way, the relationship grows past transactional supply, into shared problem-solving and joint innovation — a real difference for those managing regulatory registration, logistics, or emergency ramp-ups during unexpected pest outbreaks or supply delays elsewhere.
Manufacturing 6-Chloronicotinamide doesn’t end with shipping drums or foil-lined bags out the warehouse door. In the real world, process variables come back to haunt if not managed at source. Customers sometimes find minor particle variation or agglomeration upon shipment arrival due to climatic differences. We keep a responsive troubleshooting desk open, running small pilot blends or adjustable drying cycles based on feedback — not leaving clients to figure out downstream fixes alone. As a direct producer, it takes little extra effort to adapt runs from large, low-attrition flakes for bulk reactors to finer powder grades for sensitive pharma blending.
Having walked plants ourselves, we recognize that unnecessary handling or prolonged storage can change flowability, solubility, or even minor chemical properties. Clients moving from kilogram to multi-ton runs often bring unexpected scale-up questions: does the material coat a certain reactor wall? Does it interact with elastomer gaskets under alkaline or acid conditions? Answers flow faster—and in language plant personnel understand—because the people behind our products know the exact process choices used, not just the theory from a sales manual.
Unexpected regulatory asks or audits often surface long after initial delivery. By holding synthesis records and original analytical sheets, we support submission for changing standards or new end-use registrations. That’s an edge not found from bulk handlers lacking direct experience with both compliance routines and practical plant certification.
6-Chloronicotinamide, like many chlorinated heterocycles, calls for disciplined handling. At our shop-floor level, operators and QC staff undergo regular training not just in containment, but in safe response to spills or exposure. It’s rare to hear manufacturers mention this upstream attention, but reality proves it matters — especially for users in countries where local rules expect not just compliance, but a functioning internal safety culture. Our records reflect not only analytical sheets, but strict adherence to local and corporate EHS protocols.
For partners running sensitive downstream steps—high-value reactions or closed-system production—knowledge of actual batch performance lets them plan efficient runs and reduce off-line purification. By detailed documentation and open exchange, users feel confidence that each shipment matches what worked before, limiting surprises during early or late-stage scale-up. Over time, the risk shifts from unnecessary repurification or disposal to targeted, effective use across different applications.
Local communities and regulatory authorities carry justified concerns about environmental impact, and so do many of our long-term partners. Our facilities dedicate resources to minimizing discharge, solvent emissions, and hazardous waste during 6-Chloronicotinamide production. Rather than hiding behind broad environmental claims, we open up our records to third-party audits and partner reviews. Practical solutions—such as closed-loop solvent recovery and inline monitoring of effluent—come about not from abstract mandates, but from the reality of operating in regions with growing public, agricultural, and governmental scrutiny.
As process chemistry evolves, we steadily invest in more selective catalysts and smarter in-line analysis. Less waste and tighter reactions mean lower contamination risk, smaller energy draw, and reduced total cost for both us and our customers down the supply chain. Being transparent about these details allows us to build credibility when questions arise around compliance, especially in fast-moving or newly regulated end-uses.
6-Chloronicotinamide represents more than a tradeable molecule for us—it lives as a building block connecting research ambition to actual solutions in labs and fields worldwide. New application areas regularly emerge: metabolic inhibitors in plant science, tailored synthons for complex small molecule platforms, and upgraded ligands for advanced catalysis. Those at the frontline of research and development need manufacturer relationships that support trial batches, urgent scale-ups, or restocking during surprise breakthroughs. By running our production floor with direct user input, we gain both technical feedback and market knowledge—leading, step by step, toward swifter innovation.
Ultimately, real-world science depends on partnerships rooted in understanding, not just paperwork. As 6-Chloronicotinamide continues to support advancements in agriculture, public health, and new synthetic platforms, we stay committed to offering not just a product, but a transparent process, backed by real answers from those who handle chemistry day in and day out.