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Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene

    • Product Name Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene
    • Alias HCCH
    • Einecs 215-609-9
    • 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

    960823

    Chemical Name Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene
    Synonyms Hexachlorom-xylene; HCHMX; MX
    Molecular Formula C8H2Cl6
    Molar Mass 347.73 g/mol
    Cas Number 87-43-8
    Appearance White crystalline solid
    Melting Point 230-231 °C
    Density 1.77 g/cm³
    Solubility In Water Insoluble
    Vapor Pressure Very low at room temperature
    Stability Stable under recommended storage conditions
    Odor Odorless
    Usage Mainly as an intermediate in chemical synthesis, particularly for lindane production

    As an accredited Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Brown glass bottle with secure cap, labeled with chemical name, hazard symbols, and 100g net weight, packed in protective box.
    Shipping Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-m-xylene should be shipped in tightly sealed containers, protected from moisture and incompatible materials. Transport in compliance with local, national, and international regulations for hazardous chemicals (UN2811, Toxic Solid, Organic, N.O.S.), with appropriate hazard labeling. Use secondary containment and ensure temperature control if required.
    Storage Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-m-xylene should be stored in a tightly sealed, clearly labeled container, away from incompatible substances such as strong oxidizers and acids. Store it in a cool, dry, well-ventilated area, protected from sunlight and moisture. Avoid exposure to heat and flame. Ensure appropriate secondary containment and restrict access to trained personnel only. Follow all regulatory guidelines for hazardous chemicals.
    Application of Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene

    Applications of Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene in Industrial Manufacturing

    Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene serves as a key synthetic intermediate in several specialized chemical industries. As a manufacturer, we focus on high-purity production to meet the distinct, regulated needs of each downstream sector. Below we outline principal application sectors, detailing their industry requirements, technical formulations, integration steps, and the final products made by global manufacturers.

    1. Agrochemical Synthesis (Intermediates for Pesticides)

    This compound acts as an essential intermediate in the synthesis of specific organochlorine pesticides, notably in the manufacturing processes for products such as quintozene (PCNB) and related fungicides. It enters the synthetic sequence at an early stage, providing the chlorinated hydrocarbon backbone necessary for further functionalization. Production processes strictly control trace impurities to meet the stringent safety, environmental emission, and technical criteria enforced by national agrochemical authorities.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems for Agrochemicals
    • Registration, Evaluation, Authorisation and Restriction of Chemicals (REACH – EU Regulation No 1907/2006)
    • US Environmental Protection Agency (EPA) Pesticide Registration Protocols
    • China GB/T 33086 Agrochemical Intermediates Industry Standard

    Typical usage ratio

    • 5% to 15% w/w in pre-condensation mixtures for target active ingredient synthesis
    • Specific ratios adjusted per downstream reaction control yield and regulatory thresholds for byproduct monitoring

    Downstream process integration

    • Provided directly into closed agitated reactors for halogenation or further substitution reactions
    • Monitored at the stage of pre-final crystallization to remove unreacted residues
    • Accompanied by in-process QC testing for organochlorine purity before transfer to final product step

    Final product types

    • Quintozene (PCNB) bulk technical grade
    • Granular and wettable powder fungicide formulations
    • Related organochlorine agrochemical actives

    2. Dye and Pigment Intermediate Manufacturing

    As an advanced halogenated hydrocarbon, this material is utilized in the synthesis of select aromatic dyes and pigment precursors, such as phthalocyanines and certain vat dye intermediates. The chlorinated framework introduced by this intermediate enables improved molecular stability and dispersion characteristics in pigment molecules, critical for textile and high-performance plastic coloring sectors. Manufacturers integrate strict process control to avoid unintended polychlorinated byproduct formation during scale-up reactions.

    Industry compliance standards

    • REACH Regulation (EU) on chemicals and their safe use
    • OEKO-TEX® Standard 100 (Textile Chemical Safety)
    • China National Textile Dye Processing Standard GB/T 23963
    • Zero Discharge of Hazardous Chemicals (ZDHC) Manufacturing Restricted Substances List

    Typical usage ratio

    • 3% to 12% w/w based on desired chlorination degree in dye molecule synthesis
    • Adjusted according to specific structure of target intermediate and reaction efficiency data

    Downstream process integration

    • Introduced as a core reagent during the halogenation stage of pigment molecule assembly
    • Utilized in high-shear batch reactors with continuous purity and color value monitoring
    • Residues managed under closed loop to minimize potential environmental release

    Final product types

    • Phthalocyanine green and blue pigments
    • Vat dye intermediates for cellulosic fiber dyeing
    • Color masterbatches for engineering plastics

    3. Polymer Chemical Additive Production

    This compound functions as a crucial feedstock in the formulation of specialty polymer stabilizers and flame retardant additives. During the additive manufacturing stage, the molecular chlorine content enhances the flame-retardant profile of downstream polymer formulations, particularly in PVC, ABS, and polystyrene systems for construction, automotive, and appliance applications. Processing facilities deploy advanced handling and dosing systems to ensure uniform blending and minimize exposure to both operators and the environment during preparation.

    Industry compliance standards

    • UL 94 Flammability Standards for Plastic Materials
    • ISO 1043-4 Nomenclature for Additives in Plastics
    • RoHS Directive (2011/65/EU) for Electronics and Electrical Equipment
    • China GB 4806.7 National Standard for Additives in Polymer Materials

    Typical usage ratio

    • 0.2% to 4% w/w as a primary or co-stabilizer in polymer compound melts
    • Ratios fine-tuned per polymer matrix type, targeted flammability rating, and local regulatory caps on total chlorine

    Downstream process integration

    • Metered into twin-screw extruder or high-shear blending tanks during plastic compounding
    • Undergoes melt-phase fusion with host polymer for homogeneous dispersion
    • Quality control monitors residual additive and leachability per product grade

    Final product types

    • Flame-retardant masterbatches for cable insulation
    • Stabilized PVC pipes and fittings
    • Polymer sheets and automotive interior panels meeting UL 94 V-0 specs

    4. Pharmaceutical Intermediate Synthesis

    In the pharmaceutical sector, this intermediate finds tightly controlled application in the synthesis of certain heterocyclic scaffolds and advanced intermediates for active pharmaceutical ingredients (APIs). Pharmaceutical-grade material must comply with multi-stage analytical validation, with focus on eliminating persistent organic pollutants or high-toxicity byproducts. Its regulated use aligns strictly with process-specific Drug Master Files (DMF) and must satisfy documentation requirements for international ANDA submissions.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • US FDA 21 CFR Parts 210 & 211
    • EU GMP Annex 1: Manufacture of Sterile Medicinal Products
    • Chinese Pharmacopoeia (ChP) standards for chemical intermediates

    Typical usage ratio

    • Precision dosed at 0.1 to 2 molar equivalents in batch-wise synthesis routes, strictly confined to non-final stage intermediates only
    • Adjusted by route efficiency, impurity profile, and final step conversion rates

    Downstream process integration

    • Loaded under GMP isolation units with full material traceability
    • Reacts as a core halogen source in controlled halogen exchange or ring-closure steps
    • All residuals removed prior to final API precipitation and purification

    Final product types

    • Synthetic API intermediates for anti-fungal or anti-parasitic drugs
    • Multi-step heterocycle pharmaceutical scaffolds
    • Specialized investigational medicinal compounds (registered via DMF)

    5. Industrial Biocide Ingredient Formulation

    This hexachlorinated intermediate supports the preparation of specialized industrial biocide products for coatings, water treatment, and materials preservation. Its halogen content confers microbial resistance essential for controlled biocidal action in marine paints, cooling tower formulations, and wood treatment chemicals. Adherence to strict environmental and product use regulations is required throughout formulation, with dedicated storage and handling systems to control operator exposure and limit volatilization.

    Industry compliance standards

    • EU Biocidal Products Regulation (BPR, Regulation (EU) 528/2012)
    • US EPA Federal Insecticide, Fungicide, and Rodenticide Act (FIFRA)
    • China GB 18582-2020 Standard for Indoor Coating Materials
    • ISO 11998 Wet Abrasion Test (Specific to Antimicrobial Coatings)

    Typical usage ratio

    • 0.5% to 6% w/w in concentrated biocide premix solutions
    • Depends on final product type, intended release profile, and local threshold limits for active chlorinated substance in use

    Downstream process integration

    • Blended during the aqueous or solvent phase as primary or secondary antimicrobial component
    • Subject to batch record keeping and compliance review at every filling step
    • Monitored for degradation products through finished product shelf-life studies

    Final product types

    • Antimicrobial marine and industrial paints
    • Cooling tower water biocide formulations
    • Wood and bamboo preservatives for outdoor construction
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    Competitive Alpha,Alpha,Alpha,Alpha',Alpha',Alpha'-Hexachloro-M-Xylene prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Understanding Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene: A Chemical Manufacturer’s Perspective

    Every batch of Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene (sometimes known as HCHMX or technical hexachloroxylene) passing through our reactors draws on years of refining, troubleshooting, and adaptation. You won’t find much glamour in the process—raw materials, high-precision filtration, and tuned distillation columns do most of the heavy lifting. But the integrity of this compound carries weight in the real world, especially in the fields that depend on pure, reliable specialty chemicals.

    A Look at Our Model and Specifications

    We produce Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene as tightly specified crystalline powder with a purity standard rooted in industry benchmarks developed over decades. Routine HPLC and GC-MS analysis keeps our product within defined limits for active ingredient, moisture, and key impurity profiles. Typical product falls between 98% and 99% purity, with moisture well under 0.5%. This isn’t simply about hitting numbers for a data sheet—minute deviations can trigger serious shifts in downstream formulations, so our QA team rejects anything suspicious before it goes beyond the plant.

    Particle size distribution stays consistent because wet milling and dry sieving give us control over granulation before packaging. Some applications, such as in certain specialty coatings, require a finely calibrated particle size. By controlling process temperatures and mixing speeds, we avoid clumps that turn up in lesser grades. A lot of customers ask what “model” means for this product; in our shop, models represent precise process adjustments rather than simply different grades off the same line. Our Model HX6C offers high-purity, narrow particle range, and very low byproduct content—built for demanding end-uses where batch repeatability matters more than mass commodity pricing.

    Usage Rooted in Real-World Performance

    Since the 1970s, Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene found roles in diverse industries, from chemical intermediates to high-performance coatings and agrochemical formulations. Customers using our product do not simply want “any” technical HCHMX—they need consistent purity and reliable supply. In one illustrative case, a paint formulation requiring precise pigment dispersion faced sporadic gelling, which we traced to residual byproducts from a lower-grade competitor. Our process cuts those byproducts by rigorous fractional crystallization and multi-stage purification, which resulted in zero downstream gelling for our customer.

    Environmental expectations have shifted, forcing manufacturers like us to target not only purity for performance, but lower residuals and trace contaminants for safety and compliance. The main demand notes—the fine balance between cost, processability, and environmental footprint—often drive our in-house engineering conversations. In the coatings sector, even a slight miscue in purity can mean defective film formation or unexpected reactivity. In agricultural intermediates or specialty polymers, many buyers now request assurance that organochlorine byproducts have been reduced as close to non-detect as current technology allows. Matching these needs pushed our own process upgrades, including closed-loop solvent recovery and real-time process monitoring.

    Recognition of Differences Compared to Alternatives

    Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene often gets compared with other hexachlorinated xylenes and related aromatic intermediates. The difference hinges on substitution pattern and process purity. Differently substituted isomers sometimes appear attractive for price, or because imports offer them as generic technical blends. Shortcuts in isomer separation can introduce hidden contaminants, resulting in unpredictable performance for specialty applications.

    We have tested side-by-side blends and found variance in melting points, solubility profiles, and even color retention in polymer systems. For instance, an ortho-substituted hexachloro xylene sometimes displays fast color degradation on UV exposure, creating defects after only weeks of weathering. Our m-xylene derivative holds up under the same screening conditions—it’s baked right into the crystalline form and confirmed through exposure testing, not sales talk.

    Longstanding partners in the syntheses of certain active ingredients—from crop protection to flame-retardant polymers—note the benefit of tighter impurity control with our process. A lower byproduct load can shave time and money off end-use purification steps, reducing waste and streamlining compliance checks. Our material avoids the trace halogenated byproducts that sometimes complicate waste management or require extra downstream filtration. Less headache in final formulation, cleaner audit trails, less variance between production runs—those are the actual, lived-in differences we’ve worked to deliver batch after batch.

    Why Manufacturing Experience Matters

    Practically speaking, the realities of chemical manufacturing come down to reliability, not just specs on a PDF. Small batch variance accumulates over time, and unless a producer invests in real-time analytics and regular equipment upgrades, purity losses and contamination risks quietly grow. We overhauled our crystallizers and analytics in the last five years, slicing our outside-lab rejection rate by more than thirty percent. Fewer holdbacks and nearly zero customer complaints speaks for itself.

    We've also seen firsthand how shifting upstream supply chains can stress production. During global shortages of chlorinated aromatics, counterfeit and off-brand materials surged onto the market. Some batches, offered at tempting prices, wound up dragging down product lines, resulting in product recalls and insurance claims for buyers lured by lower sourcing costs. We stuck to audit-proven raw suppliers and brought in dual-source contingency planning, so our quality and delivery timelines held fast even when much of the competition scrambled.

    Strong technical background at the plant floor shapes this process. Fielding dozens of customer technical requests each month, our lab team runs side-by-side application trials to vet new formulations and accelerate troubleshooting. Being close to the manufacturing line means more than chemistry—deep familiarity with raw material origins, reactor cycle quirks, and how a certain operator’s finishing touch can smooth out an entire production run. This connection between floor-level detail and end-use application has helped avert more than one costly mishap for long-term partners.

    Commitment to Traceability and Safety

    While regulatory crosstalk sometimes creates confusion, we take it seriously. Everything produced can be traced back to source. Each drum or tote can be tracked by batch, with analytics going back through raw material lots. Auditors inspecting our records check stepwise logs of temperature, solvent use, and analytical checkpoints for each run. These logs hold up to both internal and third-party inspection, providing peace of mind not just for us, but for downstream processors and their own regulatory liaisons.

    During a recent batch review, a minor deviation in final color flagged our in-line spectrometry sensors. Rather than release a possibly out-of-spec shipment, we reprocessed the lot, taking the operational loss up-front instead of facing a recall. This decision wasn’t forced by compliance obligations, but rooted in a hard-learned company ethic—damage to trust with customers costs far more than rework overhead.

    Towards Real Sustainability

    Public appetite for “green chemistry” pushes every sector to rethink legacy chemical processes, and we take an honest view of what can and cannot be achieved with legacy chlorinated intermediates. The established market for Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene expects purity, availability, and fair value, but no longer at any environmental cost. The challenge lies in reducing resource waste, solvent emissions, and process byproducts while staying true to batch quality.

    We have rolled out closed vapor capture and solvent recycling, reducing fresh input and VOC output. Recovering process heat cuts our direct energy consumption per kilo produced, which not only reduces our carbon footprint but also allows for operational savings we pass down to buyers. Small changes, such as using smart filtration media and digital dosing controls, result in less off-spec waste and fewer hazardous shipments. These improvements reflect collective experience and manufacturer-led initiative—not government mandates or hollow sustainability slogans.

    Waste management has tightened. Mother liquor from the crystallization step, which once left the plant as industrial waste, is now re-processed for solvent recovery, with any final residues routed to high-temperature incineration with full emissions monitoring. We have engaged with downstream users to co-design solutions for packaging re-use and take-back, working with logistic partners to shrink our shipping impact.

    What Sets Our Hexachloro-M-Xylene Apart

    For many buyers, distinctions between technical specialty chemicals can seem subtle at the ordering desk. But from the manufacturer’s viewpoint, every integer in purity, every tenth of a percent in moisture, and every trace side-product actually tells a story about production discipline and care. We take proprietary steps to minimize trace polychlorinated byproducts, which often accumulate in generic or imported material produced on aging equipment.

    In one notable example, a customer experiencing recurring filter fouling in a high-throughput resin application traced the cause to polymerizable impurities left in a market-available hexachloroxylene. Our model’s tighter impurity removal immediately resolved the issue, ending weeks of downtime and scrap. Such stories repeat in agriculture, specialty polymers, and pigment synthesis, where “close enough” purity from a midpoint supplier simply falters when subject to tough, on-line manufacturing environments.

    Regular customer feedback, batch analysis, and production floor discussions drive every improvement. We have invested in feedback loops, not simply for complaints but to capture suggestions and test new process controls. On occasions where a specification request goes beyond what’s standard, our production team rolls up their sleeves to trial process changes in parallel with a customer’s application lab, working through the inevitable surprises together.

    Industry Evolution and Forward Thinking

    Chemical manufacturing never stands still. The market for Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene has matured alongside advances in both organic synthesis and process engineering. Over the last decades, demand profiles have changed, with many legacy applications phasing out while new specialty uses emerge across global markets. This shifting demand landscape means product consistency and reliability have grown even more important. Our approach mirrors this evolution, combining legacy know-how with a willingness to adapt, test, and refine.

    As tighter environmental protocols become part of the global chemical trade, many downstream users choose partners based on transparency and responsiveness rather than just spot pricing. We operate with a clear, data-driven approach; trend analysis for impurity control, predictive maintenance schedules for reactors, and trackable metrics for output mean our customers receive more than a commodity—they get a product shaped to stand up to audit, application, and field performance.

    Technical users in markets like high-stress coatings, agricultural chemistry, and polymers increasingly request collaborative development, sharing both application insights and performance requirements longer before mainline production. We have responded by fostering these conversations—not with a one-size-fits-all answer, but by opening our lab doors to joint formulation and stress testing.

    An Ongoing Dialogue with Customers

    Suppliers, especially in the specialty segment, must avoid complacency. Each interaction with customers—whether over a technical question, a quality issue, or a regulatory audit—offers fresh insight and learning. Troubleshooting a persistent odor issue or refining the drying step based on real-world complaint data has driven some of our most impactful changes. These incremental improvements, hard-won through close feedback, build up a product line that can be trusted under variable production and field conditions.

    For new users evaluating Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene, inquiring into process transparency, batch traceability and technical support gives a more complete picture of value than standard pricing sheets. We maintain rolling data on recent production quality, allowing for analytical support and side-by-side testing with other options. This open-door policy means buyers access not only product, but ongoing support grounded in decades of technical and production knowledge.

    Real-World Impact and Future Outlook

    Alpha,Alpha,Alpha',Alpha',Alpha',Alpha'-Hexachloro-M-Xylene continues to find its place in complex chemical supply chains. Each improvement—whether tighter purity, less process waste, or faster technical response—ripples out to downstream innovation and product safety. Efforts to drive down trace organochlorine byproducts or boost resource efficiency yield environmental gains and stronger customer relationships. Decisions made on the manufacturing floor, far from being isolated technicalities, shape the reliability of the products that reach global markets.

    True specialty production calls for deep engagement, and our manufacturing experience shapes every facet, from procurement and process tuning to customer engagement and regulatory compliance. By focusing on underlying chemistry, clear process control, and open dialogue, we contribute more than bulk chemical—delivering a product defined by detail, rigour, and partnership.