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1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%]

    • Product Name 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%]
    • Alias Chlordane
    • Einecs 212-484-9
    • 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
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    VTB
    Specifications

    HS Code

    681874

    Chemical Name 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene
    Synonym Aldrin
    Cas Number 309-00-2
    Molecular Formula C12H8Cl6
    Molecular Weight 364.91
    Appearance White to light tan crystals
    Density 1.6 g/cm³
    Melting Point 104 °C
    Solubility In Water Insoluble
    Solubility In Solvents Soluble in organic solvents (e.g. acetone, benzene)
    Purity Content >75%
    Odour Mild chemical odor
    Stability Stable under normal storage conditions
    Flammability Non-flammable

    As an accredited 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The chemical is packaged in a 500g amber glass bottle with a secure screw cap, clearly labeled for safe laboratory handling.
    Shipping Shipping of 1,2,3,4,10,10-Hexachloro-1,4,4a,5,8,8a-hexahydro-1,4:5,8-exo,endo-dimethanonaphthalene [Content >75%] requires classification as a hazardous material. It must be packed in approved, sealed containers, properly labeled, and accompanied by safety documentation, with transport in compliance with international hazardous goods regulations (such as UN and IMDG/ADR/IATA guidelines).
    Storage Store **1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-hexahydro-1,4:5,8-exo,endo-dimethanonaphthalene** (>75%) in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible materials (strong oxidizers, acids, and bases). Keep container tightly closed in a secure, labeled, chemical-resistant container. Use secondary containment to prevent environmental contamination, and restrict access to trained personnel only.
    Application of 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%]

    Applications of 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%] in Industrial Manufacturing

    As a specialized manufacturer, we supply high-purity 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene to various industry leaders. This material supports demanding industrial production in halogenated cyclodiene chemistry, mainly serving critical applications in agricultural and specialty chemical manufacturing, flame retardants, polymer modification, and advanced material synthesis. Our technical formulation teams collaborate closely with downstream production to optimize integration and process performance.

    1. Synthesis of Crop Protection Intermediates

    Agricultural chemical manufacturers use this compound as an essential precursor in the synthesis of selective cyclodiene-based insecticide intermediates. The controlled halogenation and unique exo-endo stereo structure offer tailored reactivity for subsequent functionalization. Strict in-process controls focus on ensuring low impurity content for downstream active ingredient consistency. This raw material enters the process during early multi-step synthesis, enabling reliable scale-up under established regulatory guidelines.

    Industry compliance standards

    • FAO/WHO Specification for Pesticide Ingredients
    • OECD Good Laboratory Practice (GLP)
    • ISO 9001:2015 Quality Management
    • REACH Registration (EC) No 1907/2006

    Typical usage ratio

    • 30–60% by weight, adjusted by target molecule and impurity profile constraints

    Downstream process integration

    • Employed at primary halogenation and cyclization stage before subsequent derivatization

    Final product types

    • Cyclodiene insecticide intermediates for agricultural chemical synthesis
    • Active ingredient precursors for regulated crop protection formulations

    2. Flame Retardant Additive Manufacturing

    Polymer material producers incorporate the high-chlorine content of this molecule to enhance flame resistance in specialty plastics and insulation materials. Formulation engineers blend this raw material during compounding to achieve necessary fire performance ratings. The structure contributes chlorine that imparts flame retardant properties, while stable molecular integrity limits physical migration within the composite matrix.

    Industry compliance standards

    • UL 94 Flammability Testing
    • RoHS Directive 2011/65/EU (applicable for restricted substances)
    • EN 45545-2 Railway Applications Fire Protection
    • ISO 178 ASTM D2863 Oxygen Index Method

    Typical usage ratio

    • 5–20% by weight in polymer blends, according to final fire standard requirements and matrix compatibility

    Downstream process integration

    • Directly incorporated during melt blending or extrusion of flame-retardant compounds

    Final product types

    • Flame-retardant thermoplastics (PVC, ABS, PE compounds)
    • Wire and cable sheathing compounds
    • Automotive and electrical insulation panels

    3. Specialty Rubber Crosslinking Agent

    The specific chlorinated structure enables use as a crosslinking modifier in high-performance elastomer systems. Specialty rubber manufacturers utilize this raw material to increase chemical resistance, decrease flammability, and adjust cure characteristics. Process control focuses on dispersing the additive uniformly in rubber compound blends before vulcanization, ensuring consistent network formation and long-term material durability.

    Industry compliance standards

    • ASTM D681-14 Standard Test Method for Rubber Chemical Additives
    • ISO 14001 Environmental Management (relevant for downstream emissions)
    • REACH Annex XVII Chemicals Restrictions
    • SAE J200 Elastomer Compound Descriptions

    Typical usage ratio

    • 1–5 parts per hundred rubber (phr), determined through laboratory formulation trials based on desired crosslink density

    Downstream process integration

    • Blended with bulk elastomer and accelerators during initial compounding prior to mold shaping and curing

    Final product types

    • Chemical-resistant hoses and gaskets
    • Automotive seals and weatherstripping
    • Industrial rubber specialty products requiring flame resistance

    4. Intermediate for Advanced Organic Synthesis

    Custom synthesis laboratories and specialty fine chemical plants rely on this reagent for constructing polycyclic frameworks in research-scale and commercial-grade production. Its arrangement of six chlorine atoms permits stepwise substitution, cycloaddition, and controlled reduction for preparing advanced building blocks, particularly for specialty catalyst ligands or pharmaceutical intermediates. Rigorous batch tracing and documentation conform to the downstream users’ GMP or ISO certification standards.

    Industry compliance standards

    • ISO 9001:2015 and ISO 14001 (management and environmental systems)
    • ICH Q7 GMP for Active Pharmaceutical Ingredients (if for pharma intermediates)
    • Relevant local authority registration for specialty chemical handling
    • SDS conformance to GHS requirements

    Typical usage ratio

    • Variable, often 1.0–2.0 molar equivalents relative to limiting substrate, tailored in pilot studies for yield and selectivity

    Downstream process integration

    • Used in key synthetic steps such as Diels-Alder reactions, halide exchange, or controlled reductive dechlorination

    Final product types

    • Polycyclic building blocks for advanced material research
    • Pharmaceutical synthesis intermediates under GMP protocols
    • Polyfunctional specialty ligands for catalyst development

    5. Chlorinated Derivative Manufacturing for Paints and Coatings

    Producers of specialty chlorinated resin modifiers and coating additives employ this chlorinated cyclodiene for manufacturing performance-enhancing intermediates. The compound’s reactivity profile supports the introduction of chlorine atoms into alkyd and epoxy resin backbones, improving weatherability and chemical resistance in industrial coatings. Integration requires careful control of reaction temperature and catalyst dosing to prevent byproduct formation.

    Industry compliance standards

    • ISO 12944 for Protective Paint Systems
    • ASTM D2574 for Coating Stability
    • REACH compliance on downstream uses
    • VOC content limits per EPA 40 CFR Part 59

    Typical usage ratio

    • 5–15% by weight as a chlorinating intermediate, adapted to paint resin batch size and degree of modification required

    Downstream process integration

    • Reacted with base resin feed during synthesis, followed by purification and blending with other coating components

    Final product types

    • Chlorinated alkyd and epoxy resin modifiers
    • Weather-resistant industrial protective coatings
    • Corrosion-resistant marine, pipeline, and infrastructure paints
    Free Quote

    Competitive 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene [Content >75%] prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-Hexahydro-1,4:5,8-Exo,Endo-Dimethanonaphthalene: Experience from the Manufacturer’s Floor

    Experience Shapes Our Approach to Manufacturing

    Every lot of 1,2,3,4,10,10-Hexachloro-1,4,4A,5,8,8A-hexahydro-1,4:5,8-exo,endo-dimethanonaphthalene seen in our facility reflects a painstaking commitment to reliability and safety. Our synthesis line doesn’t follow shortcuts. Raw material selection stands as the backbone—quality impacts every step downstream. Typical production runs target purity above 75%, not just because market specs ask for it, but because field experience has shown that consistency at this threshold leads to fewer issues in storage, downstream blending, or end-use application.

    Understanding the Model and Specification

    A 75% content grade is not an arbitrary marker. Industry partners in both research and manufacturing have found this level balances manageable handling, stable shelf life, and effectiveness as a precursor or active component in specialty applications. Our batches undergo side-by-side analysis, integrating not only classical titration but also modern chromatographic methods. We have found repetitive verification on our in-house GC systems gives greater traceability, especially when recurring feedback from customers points to issues like unexpected septum bleed or column clogging during their own analysis.

    Over years of direct feedback, it became clear that relying on a typical “label grade” description overlooked real-world batch-to-batch variability. As manufacturers, putting our own product through these checks, not just at the final stage but throughout processing, has cut customer complaints nearly to zero. No shortcut stands in the way of actionable reliability. The system in use here incorporates continuous improvement—our own technicians regularly pull random in-process samples to crosscheck against finished drums. The only way to catch subtle shifts in isomer content or contamination lies in running this kind of tight shop floor control, not remote testing.

    Usage Insights Straight from the Source

    Many inquiries begin with questions about safe use, reactivity, or compatibility. Few outside a production environment realize just how critical operator training is in this context. Dust mitigation, careful weighing, regular equipment cleaning—there’s real risk in complacency, especially given the compound’s halogen load and reactivity profile.

    From our experience, most customers look for this molecule as an intermediate in agrochemical or specialty polymer formulations. Some appreciate that at 75%+ content, there’s enough concentration to remain cost-effective, yet still dilute enough to allow safe handling under typical production conditions. Higher grades sometimes appeal on paper, but feedback shows more risk of crystallization in transfer lines or inconsistent dispersion in end formulas.

    We see real discussions on plant floors about solvent compatibility. Years ago, process engineers flagged issues when blending in common aromatic carriers; learning from in-house trials, we adjusted guidance, helping partners avoid precipitation and filtration headaches. By sharing our own real-life blending results, reliability across supply chains improved.

    The compound anchors semi-industrial scale-up studies where consistent reactivity and manageable viscosity matter more than lab-grade definition. What works in the pilot plant often hits snags when a process steps up to multi-ton scale. Real-world adjustments—alternative solvents, temperature ramp rates, inert gas overlays—come from direct pushback from line operators and QC staff, not just lab notebooks. We fold those lessons back into updated recommendations for both batch and continuous setups.

    Differences from Other Grades and Related Products

    Customers who’ve dealt with mixed-batch sources or brokers soon notice differences in performance. We see this most in pigment or pesticide applications, where trace impurities can lead to off-spec downstream products or slowed reaction kinetics. Bulk materials sold through trading houses often lack traceability, creating headaches for customers when regulatory audits land.

    Direct manufacturing oversight makes a significant difference. Many competitors offer 'high purity' claims, but our experience proves purity alone does not guarantee smooth use. With this compound, the balance of isomers, trace residual solvents, and crystallinity nearly always impacts customer process stability more than a decimal point increase in label grade. Field engineers in coating plants have told us that an unbalanced isomer mix can clog their spray heads and force expensive downtime. Because we carry direct responsibility for what ships out, we catch those variances at the source, not after complaints stack up.

    Traceability and recordkeeping create a tangible advantage. A company buying drums intended for synthesis in a regulated market cannot risk lack of origin data. On our end, every barrel holds a full set of batch and raw material records, not out of regulatory obligation alone, but from knowing firsthand the delays and costs weak documentation creates later down the line. That level of record control isn’t common among mere traders or aggregation points—only those shaping the chemistry from base ingredients up appreciate how each input can alter end-product fate.

    Users who’ve bought similar-sounding grades off global exchanges might notice wider variability—not just in concentration but in the subtle details: separation ease, melt point consistency, or filtration rates. Unsteady grades cost real money in lost efficiency. Our output, managed directly by engineers who also oversee waste and byproduct streams, gives confidence absent from repack Diamond-Grade claims you often see online. Since we can adapt process steps quickly after market or internal trends emerge, supply risk shrinks for partners committed to regular purchase schedules.

    Challenges and Cumulative Solutions

    Supply chains for halogenated intermediates have faced periods of real tension. Fluctuating feedstock prices, transport issues, and unpredictable weather impacts challenge planning. We’ve learned to build flexibility into sourcing by maintaining several vetted upstream suppliers—no single-point failures. Experience argues against cost-cutting at the raw material stage. Some buyers think minor price dips mean like-for-like quality, but minor impurity increases in trichloroethylene or related precursors trigger whole sets of processing headaches. We haven’t just learned that on paper; actual process downtime underlines the value of reliability.

    Storage stability marked another early challenge. Colder storage slows degradation, but brings crystallization. Warm temperatures aggravate volatility loss. Working hands-on with large-scale drums, we found that even minor differences in drum headspace gas and seal quality altered year-end assay values. Our own packaging policies changed as a result. Seals and inner liners went from generic to custom-specified. That reduced loss in transport and longer-term warehouse storage, something purchasing managers quickly recognized in their reduced write-off rates for expired stock.

    It’s also worth noting the learning curve in regulatory reporting. Regions with tighter trace element controls have forced us to routinely upgrade detection methods. Instrument investments moved from simple colorimetric to full-spectrum analysis. That kind of capital expense cannot be justified without direct manufacturer accountability—returns show up in fewer customs detentions and much smoother regulatory audits downstream, a fact partners recognize once they’ve faced a lost shipment in limbo.

    Supporting Safe, Consistent Use Over the Long Haul

    Throughout years of production, customer relationships have driven our adjustments more than internal process optimization alone. Questions from experienced plant technicians—whether about safe container venting, blending dos and don’ts, or cleaning protocol after a campaign—push us to gather and share hard-won best practices. For us, no two application stories are exactly alike, even within similar end-use sectors.

    Sharing real data—such as storage temperature versus shelf life plots, or run-by-run impurity tracking—creates credibility partners can use to defend their choices before regulatory bodies or their own managers. Over-optimization for cost cuts corners; our line staff has the scars from past mistakes to show that robust product is better than slightly cheaper mishandled stock.

    From the ground up, feedback cycles remain open. An international customer once flagged an unusual haze in their reaction mixture, something not picked up in routine QC. We pulled archival raw material records, uncovered a pattern in a new feedstock batch, and traced it back. Adjusting both sourcing protocols and in-line filtration at our own plant level kept not just that customer running, but all downstream users safe. You won’t get that history lesson, or follow-through, with arms-length resellers.

    Staff experience builds stability. Our line workers and analysts communicate directly with technical customers, not through layers of distribution. That clarity—understanding why a customer in Argentina needs winterized drums versus those in Singapore who need airflow—comes from real, two-way feedback. Internal safety leaders now hold their own regular reviews with shipping, line, and R&D teams, feeding practical insights to all corners of the operation.

    Industry Trends and What Buyers Should Watch For

    Halogenated intermediates have drawn more regulatory attention with each passing year. Trace dioxin or other chlorinated byproduct thresholds ratchet tighter. Our own investments in waste stream controls and air emission reductions didn’t start from customer requests, but from watching real enforcement actions crush third-party operators lacking vision. Strong abatement and compliance programs make a difference where it counts: at customs, under government scrutiny, and when customers face their own product stewardship obligations.

    Looking down the road, customers ask us about supply chain security. Consolidation among raw material producers, changing export rules, or shifting logistics corridors create meaningful risk. Direct oversight means when a region restricts key feedstocks, we know first and adapt before downstream partners feel the crunch. Global events have shown that even one missed delivery can slow whole production sets. Our warehouse and shipping teams learned long ago to keep their ears open at every step.

    More buyers now ask about sustainability. The world of halogen chemistry rarely gets to boast about green credentials, but progress unfolds in small steps. Process improvements—switching to reclaimed solvents, closed-loop water reuse, or more efficient thermal management—foster incremental gains. Customers see value in knowing their partners eliminate unnecessary emissions and waste, not wait for rules to force a reckoning. Every kilogram saved in chemical or water use echoes down the line, showing up in cleaner plant audits and lower pass-through compliance fees.

    Passing Along Lessons Learned

    The most meaningful assurance of quality and reliability doesn’t start in a specification sheet, but in the daily routines of those who manufacture, test, and ship each drum. We learned early that transparent batches, real-time process feedback, and customer-facing communication build trust that technical papers alone cannot. Admitting process upsets, reporting small deviations before they bloom into problems, and continually tightening standards comes not from regulatory mandate, but from sustained experience on the production floor.

    For 1,2,3,4,10,10-hexachloro-1,4,4a,5,8,8a-hexahydro-1,4:5,8-exo,endo-dimethanonaphthalene, the greatest strength comes not from abstract claims, but the applied experience standing behind every drum. Partners with direct access to manufacturing insight—not layers of third-party obfuscation—make more informed decisions, encounter fewer process surprises, and rely with greater certainty on the people behind the product, not just the name on a label.

    As demand cycles evolve, as end-user expectations climb, and as oversight sharpens, there’s no replacement for a direct line to the source. Our journey with this compound, shaped by years of production, hands-on troubleshooting, direct technical support, and an unbroken record of safety, aims to assure every partner not just of chemical access, but ongoing support and adaptation in a changing world.

    Open lines, real data, tangible improvement—manufacturing from the ground up always carries risks and responsibilities, but the cumulative lessons build an offering more robust, more accountable, and more aligned with the real needs of those putting these molecules to use. Quality, in our book, grows from every corrective action, every lesson learned, and every ounce of experience transferred from factory floor to customer side.