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3-Amino-2-Chlor-6-Methylphenol

    • Product Name 3-Amino-2-Chlor-6-Methylphenol
    • Alias 3-Amino-6-chloro-o-cresol
    • Einecs 242-515-7
    • 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
    VTB
    Specifications

    HS Code

    637528

    Chemical Name 3-Amino-2-Chloro-6-Methylphenol
    Molecular Formula C7H8ClNO
    Molecular Weight 157.60 g/mol
    Cas Number 284461-73-0
    Appearance Solid, typically off-white or light yellow
    Purity Typically ≥98%
    Boiling Point Decomposition before boiling
    Solubility In Water Moderate
    Storage Temperature Room temperature, keep container tightly closed
    Synonyms 2-Chloro-6-methyl-3-aminophenol

    As an accredited 3-Amino-2-Chlor-6-Methylphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging contains 100 grams of 3-Amino-2-Chlor-6-Methylphenol in a tightly sealed amber glass bottle with safety labeling.
    Shipping 3-Amino-2-Chloro-6-methylphenol should be shipped in tightly sealed containers, protected from moisture and direct sunlight. Handle with appropriate safety measures, using gloves and eye protection. Transport in accordance with local, national, and international regulations for hazardous chemicals to avoid contamination or accidental exposure during transit. Store in a cool, dry place.
    Storage 3-Amino-2-chloro-6-methylphenol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of ignition. Keep it separated from incompatible substances such as strong oxidizing agents and acids. Proper labeling and secondary containment are recommended to prevent leaks or accidental exposure. Store according to all relevant safety regulations.
    Application of 3-Amino-2-Chlor-6-Methylphenol

    Applications of 3-Amino-2-Chlor-6-Methylphenol in Industrial Manufacturing

    As an established manufacturer of 3-Amino-2-Chlor-6-Methylphenol, we deliver this specialty intermediate to strictly industrial clients with clear, audited downstream production goals. Its molecular properties target niche applications across specific regulated industries where its substitution, color modulation, and synthesis-enabling functions offer demonstrable technical benefits. Below we delineate its real-world usage in major downstream sectors, outlining operational standards, usage ratios, production process stages, and final product categories as witnessed in our supply practice.

    1. Dye Intermediates for Azo and Anthraquinone Pigment Synthesis

    Pigment and dye manufacturers integrate this raw material as a key coupling component for the controlled creation of stable, high-intensity colors—especially in yellow and orange pigment structures—required for inks, plastics, and technical textiles. Specialists dose it during advanced diazotization and coupling phases owing to its amine and halide functionality. High-purity grades ensure batch-to-batch shade consistency and meet the strict impurity ceilings of textile and printing certifications.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (restriction on banned amines and chlorinated aromatics)
    • REACH Regulation EC No 1907/2006 for industrial chemical management
    • EN 71-3 for coloring agents in toys
    • ZDHC Manufacturing Restricted Substances List (MRSL)

    Typical usage ratio

    • Ranges from 2.5%–8% by weight in the pigment precursor blend, depending on the targeted shade depth and pigment structure. Usage is fine-tuned based on reactivity with specific diazonium salts and end-use color strength specifications.

    Downstream process integration

    • Charged directly into the coupling segment after preparation of aqueous or alcoholic solution and pH adjustment; forms color-generating azo/aromatic systems in calibrated reaction vessels during primary pigment synthesis.

    Final product types

    • Solvent-based and water-based ink pigments
    • Masterbatches for plastics coloration
    • Technical coatings (e.g. automotive coatings, powder coatings)
    • Fiber-reactive textile dyes

    2. Pharmaceutical Intermediate for API Synthesis (Analgesics and Antipyretics)

    In regulated pharmaceutical environments, our product serves as an advanced intermediate during the multi-step synthesis of certain analgesic and antipyretic compounds. Its amino and chloro groups provide essential substitution sites, ensuring target specificity in active pharmaceutical ingredient (API) backbones. The production adheres to strict traceability, minimizing cross-reactivity and meeting stringent validation criteria.

    Industry compliance standards

    • cGMP (ICH Q7) – manufacturing practice for pharmaceutical ingredients
    • USP/NF and Ph. Eur. raw material monographs (where applicable)
    • EU EudraLex Vol 4 for active intermediate controls
    • FDA CFR Title 21, Parts 210/211 for purity and trace management

    Typical usage ratio

    • Typical loading is 1.3–4.5 molar equivalents per batch during key condensation or substitution steps, varying with API structure and desired yield; ratio validated by route-specific process development and regulatory dossier.

    Downstream process integration

    • Introduced during directed monoacylation, amidation, or cyclization reactions after deprotection steps, often under nitrogen and controlled temperatures, followed by intermediate purification for API finishing.

    Final product types

    • N-acylated non-opioid analgesic raw material
    • Precursor blocks for antipyretic agents
    • Bulk intermediates for generics manufacturing
    • Pharmaceutical active compound frameworks

    3. Corrosion Inhibitor Formulation for Industrial Cooling Water Circuits

    Engineered for integration in specialty corrosion inhibitor blends, this raw material disrupts oxidation-reduction cycles involving ferrous and non-ferrous metals typically found in closed and open-loop cooling water systems in petrochemical, power, and process plants. Its electron-donating characteristics manifest maximum benefit in formulations with specific polycarboxylates and triazole co-actives, where it achieves extended passivation cycles under variable field conditions.

    Industry compliance standards

    • ANSI/ASHRAE Standard 188 for Legionella risk management in industrial water systems
    • ASTM D1384 and D3306 (engine coolant and water inhibitor assessment)
    • EU Biocidal Products Regulation (BPR) No 528/2012 (where applicable for formulation use)
    • ISO 22196 for in-system leaching safety

    Typical usage ratio

    • Inhibitor formulations employ a loading of 0.05–0.15% by total blend weight; practical addition level depends on targeted water chemistry (chloride load, hardness, pH) and corrosion rate suppression tests.

    Downstream process integration

    • Dosed post-blending, just prior to inhibitor homogenization and finishing, then distributed via automated chemical dosing systems to active water circuits for field application.

    Final product types

    • Multi-component industrial cooling water inhibitor concentrates
    • Closed-loop plant coolant packages
    • Heavy-duty process water treatment blends
    • Petrochemical plant corrosion inhibitor solutions

    4. Precursor for Specialty Agrochemical Synthesis (Herbicides)

    Select producers in the agrochemical industry utilize this compound as a reactive intermediate for constructing certain heterocyclic herbicidal actives. The positioning of the amino, chloro, and methyl groups supports controlled nucleophilic substitution, enabling synthesis of high-activity selective weed control molecules. Technical purity is critical to ensure downstream conversion rates and minimize unwanted side products.

    Industry compliance standards

    • FAO/WHO specification for pesticide active ingredients
    • ISO 9001:2015 for quality management in agrochemical synthesis
    • EPA 40 CFR Part 180 for agricultural chemical residues in the USA
    • GLP (OECD Principles of Good Laboratory Practice) for batch validation and performance testing

    Typical usage ratio

    • Generally introduced at 0.7–2.2 molar equivalents in condensation or cyclization reactions within the herbicidal compound synthesis route, depending on conversion efficiency and step yield data.

    Downstream process integration

    • Charged into jacketed reactors during heterocycle formation, following in situ activation or halide exchange; final intermediates purified for subsequent active ingredient synthesis.

    Final product types

    • Selective soil-applied herbicide active molecules
    • Pre-formulated herbicide technical concentrates
    • Agricultural intermediate blocks for downstream pesticide processing
    • Bulk intermediates for crop protection agents
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    Certification & Compliance
    More Introduction

    3-Amino-2-Chloro-6-Methylphenol: Perspective from the Production Floor

    The Result of Precision and Experience

    At our manufacturing facility, we see the raw, granular side of specialty chemical production. 3-Amino-2-chloro-6-methylphenol, known among my team as its practical name rather than its formula, highlights some of the core strengths of our synthesis capabilities. This phenolic derivative doesn't get much attention outside of certain specialized industries, but we understand its crucial place in various chemical processes.

    Production of this compound requires a dedicated approach to purity and yield. Every batch comes from carefully controlled reaction conditions, starting from refined base materials. We use a proprietary route that combines select catalysts with strict temperature regulation to avoid unwanted side products. Our experience tells us that even a few degrees off the optimal reaction window, or impurities in the chlorinating step, will compromise both clarity and downstream reactivity of the final product. That’s not an abstract concern; missteps introduce issues ranging from filtration headaches to outright unusable lots. So every journeyman on our line knows the sensory and analytical signals—appearance, odor, melt profile, trace chlorine content—that mark the difference between batch success and waste.

    Physical Properties and Batch Characteristics

    This phenolic intermediate emerges as a pale, crystalline solid with an unmistakable scent—sharp, somewhat earthy. Typical melting point hovers in a narrow range, a quick reference to confirm identity and check for systematic batch issues. Moisture content and trace-level metal contaminants receive ongoing scrutiny at our in-house lab, since these factors affect not just shelf-life but actual process performance at client facilities. Every kilogram bag—or drum, for the scale-up clients—passes through hands and eyes both skilled in recognizing deviations long before lab reports land on a manager’s desk.

    Among my own production notes, one quality always stands out: the fine balance between solubility and reactivity. We’ve learned how a slight excess of residual chloride can bring up unwanted hydrolysis, especially in processes relying on this material as an intermediate for dyes, pharmaceuticals, or agricultural blends. So we hammer hard on washing, sometimes repeating cycles even if the first pass meets technical specs. This commitment helps guarantee a material that dissolves predictably and reacts without throwing off side-products or precipitating at inconvenient steps downstream.

    Real-World Usage: What Our Clients Build With It

    My line of sight extends beyond the plant. I’ve visited formulation labs where this compound acts as a backbone for creating tailored pesticides. These teams build active molecules onto the aromatic ring, leveraging the positions exposed by the methyl and chloro substituents. Further modifications often latch on at the amino and hydroxyl positions—we see their order patterns shift when syntheses become more advanced or when regulatory shifts push new analogues into demand.

    In the pharmaceutical field, 3-amino-2-chloro-6-methylphenol handles more than a supporting role. Teams working on antimicrobial agents, and the occasional analgesic precursor, tap into its ready derivatization. The methyl group at the ortho-position offers selectivity and drive for later-stage coupling. We know most of these processes run on tight timelines and equally tight compliance, so we invest in minimizing not just batch-to-batch variability, but also micro-level trace contaminants that could cause headaches during downstream purification.

    We’ve also supplied materials to niche electronics firms. Here, the phenolic backbone supplies a tunable component for specialty resins. These applications demand low volatility and high purity, since contaminants could disrupt sensitive polymerizations. Getting this right means passing not only the standard lot release tests, but also answering detailed supplier questionnaires and supporting technical audits on the shop floor. Engineers want more than numbers from us—they want firsthand details on actual conditions, and practical input on how to navigate scale-up variables.

    How We Stand Apart From Traders and Resellers

    Manufacturing this compound involves sweat, experience, and often a willingness to reject short-cuts that might appear tempting at first glance. Resellers and traders can offer a catalog number, but few have stood in a production bay reeking of halogenated byproducts, sorting through off-cuts and purifying to customer-specific limits. When a client calls up about vaguely abnormal granule colors, or a seeming drift in a common GC-MS peak, our team has firsthand knowledge from thousands of samples, not just paperwork or certificates.

    Direct control of process conditions brings flexibility when real-world needs change. If a client requires a slightly altered specification—say, lower moisture for storage in humid regions, or packaging down to multi-kilo foil packs for sensitive R&D use—we can adapt our batch workup and logistics. Intermediaries often lack that field sense. By contrast, several of our clients have asked for or received process samples, followed by in-person follow-ups to troubleshoot unexpected performance in end-use. These collaborative moments bridge the gap between manufacturing intent and scientific advancement—and we believe that strengthens both our material and our partners’ end products.

    A lot of differences between manufacturers and middlemen only come clear when problems show up. We’ve intercepted batches from the market labeled as the same compound, but with substantially wider impurity profiles and lower consistency. Transparency in lot traceability, full access to in-process data, and the ability to revisit process parameters set us apart from a broker simply filling a commodity pipeline.

    What Sets Our Product Apart From Other Phenolic Intermediates

    Inside the manufacturing world, we see countless aromatic intermediates pass through our lines. 3-amino-2-chloro-6-methylphenol holds unique ground, even among its chemical cousins. The dual substitution pattern—a chloro positioned at the ring, methyl at the opposite side, plus the amino and hydroxyl groups—means it slots into specialized reactions where less-substituted phenols just falter. Certain downstream syntheses hinge on getting predictable reactivities from these precise locations, with no room for wandering positions or extra substitutions.

    Comparing it to the more basic 2-chloro-6-methylphenol or its monoamino relatives, two things stand out. First, our product offers higher selectivity in N-alkylation and coupling reactions, reducing the need for excess protecting group chemistry. Projects where cost and step-count matter—think pharmaceutical scale-ups—lean on this efficiency. Second, the electron-donating and -withdrawing character at distinct spots on the ring allows for unusual substitution patterns in advanced intermediates. Experienced chemists can design routes with fewer side chain rearrangements, opening up new bioactivity or physical properties in the final API or additive.

    We also see the difference in the physical properties. Our product resists decomposition under moderately basic conditions, unlike some less-protected phenol analogues, making it a favorite in extended synthetic sequences. The melting range and particle form get tuned during crystallization, so clients who need rapid redissolution or slow-release handling get a material that genuinely meets those needs through process design, not just a lucky batch outcome.

    Challenges and Persistent Issues in Manufacturing

    No plant-based perspective is complete without grappling with the tough parts. During scale-ups, certain exothermic reactions can spiral out of control if equipment or operator attention falters for even a moment. Temperature uniformity across large reactors doesn't come easy, so we rely on a blend of plant automation and seasoned hands who know the warning signs from experience. Sulfide byproduct formation—a risk with certain raw lots—calls for vigilant QC, or post-reaction washing and filtration becomes a days-long bottleneck.

    Purification remains a tactical headache. Chlorinated aromatics love lingering in process lines, leading to cross-contamination if cleaning protocols slip. We learned to break down equipment by hand post-campaign, scrubbing and running test flushes until all traces of the previous batch disappear. This diligence protects not only the next customer’s product, but also our plant’s reputation for reliable, contamination-free materials.

    Down the line, regulatory expectations shape every choice from batch records to waste stream handling. Local and export customers demand evidence—documented, provable—of compliance with evolving safety and environmental rules. As a manufacturing team rooted in hands-on experience, we live through each update not as paperwork, but as real decisions about raw material sourcing, waste water treatment upgrades, and ongoing training for every technician. There’s no hiding behind paper shields in this business.

    Handling Variable Demand and Custom Requirements

    Traditional demand comes from established agrochemical and pharmaceutical flows, but as markets shift, we see requests for custom pack sizes, blends with stabilizers, or even micro-lot samples for feasibility studies. We run dedicated campaign processes for these high-mix, lower-volume jobs, isolating specific reactors and storage areas to shield larger production runs from any risk of cross-contamination or schedule slippage.

    Sometimes that means fast-tracking small batches through the lab and pilot line. This puts extra strain on analytic teams, and demands nimble scheduling from warehouse to dispatch. From where I stand on the line, these priorities reinforce the partnership ethos between ourselves and our clients—we collaborate directly, sharing data and optimizing packaging or labeling to match the end user’s workflow.

    For researchers or custom synthesis outfits, we’ve created small, high-purity cuts shipped in durable, double-sealed containers. Clients commented that these packages carry far fewer off-odors than alternative suppliers’ offerings, improving the accuracy and cleanliness of their syntheses downstream. This feedback cycles back into continual improvements in shipping and storage processes.

    Environmental and Safety Considerations Alongside Production

    Everyone in our business knows that the broader world is turning a sharper eye toward environmental impact and worker safety. Beyond process efficiency, these factors shape daily decision-making at every level. We built solvent recovery units directly into the plant, capturing nearly all organic vapors that vent off during key chlorination and aminating steps. Not every manufacturer volunteers the time and expense for this hardware, but those who work the process—not just plan it—know that community trust grows from real risk prevention.

    Solid waste and water discharge get treated and tracked. This reduces not only compliance headaches at audit time but long-term costs and hazard exposure for the entire local area. We’ve recently piloted biological neutralization of aqueous outflows, cutting the persistent phenolic load that might otherwise linger downstream. Direct handling of these processes translates to practical safety for our teams—less chemical exposure, fewer emergency interventions, and ultimately a stronger safety culture on the shop floor.

    Worker safety isn't rhetoric here. Over the years, procedural drift or inattention have shown the concrete risks—splash burns, inhalation incidents, or near-miss situations where an incorrect valve sequence could have sent highly chlorinated waste to the wrong container. We invest in routine (not just annual) training drills, plant walk-throughs with outside safety consultants, and regular updates on best PPE and monitoring tools. These habits don’t emerge from bullet points—they’re hard-won from decades tackling real incidents.

    Continuous Improvement and Industry Perspective

    Our position as a manufacturer puts us face-to-face with the frontiers of chemical innovation. New applications for 3-amino-2-chloro-6-methylphenol arise from close partner projects, often tied to evolving pesticide regulations, new synthetic pathways in medicinal chemistry, or material science pushes for advanced polymeric systems. Staying relevant here means tuning not just product output, but also our own reaction to early-stage customer feedback.

    Incremental improvement defines daily life: tweaks in purification produce a cleaner solid; refinements in analytical techniques let us release batches with narrower impurity tails; streamlined picking and shipping mean clients receive fresher, better-tracked lots. Feedback cycles rapidly, closing gaps between intended performance and field results. We log and act on every credible report, from hard clumping in drums on humid days to less-than-optimal reactivity at critical process steps.

    With technological shifts on the horizon—such as continuous flow synthesis or process intensification—we’re investing both in new pilot lines and workforce training. Our technicians want to understand automation beyond the display screen, applying real chemical insight to digital tools. This keeps us ready to meet unexpected surges in demand, shifting specifications, or cross-industry opportunities.

    Key Takeaways from the Shop Floor

    Manufacturing 3-amino-2-chloro-6-methylphenol doesn’t invite fanfare or public curiosity, but for every operator and supervisor in our plant, it’s a daily demonstration of applied skill and adapted wisdom. Our competitive edge draws from the tangible—direct process oversight, data-driven adjustments, the discipline to walk through every step of physical production again and again until well-honed habits replace casual oversight.

    Clients, whether steeped in mass-market synthesis or one-off custom development, count on this consistency. Our technical and sales experts, many of whom spent years in the plant before moving to upper floors, remain connected to the realities of chemical work. This keeps expectations honest and solutions grounded in what actually works, not just what looks good in a data sheet.

    The Partnership Path Forward

    Direct contact with the manufacturing process sharpens every facet of what we provide. From batch-to-batch consistency, responsiveness to feedback, openness about process details, and a willingness to invest in longer-term environmental and safety initiatives, our day-to-day reality shapes the support and reliability our customers trust. 3-amino-2-chloro-6-methylphenol may never be a headline chemical, but on our production line, it stands as proof that dedication to process and partnership elevates both the material and the end results.