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2-chlorooctane

    • Product Name 2-chlorooctane
    • Alias 2-chlorooctyl chloride
    • Einecs 210-749-2
    • 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
    Specifications

    HS Code

    307415

    Iupac Name 2-chlorooctane
    Molecular Formula C8H17Cl
    Molar Mass 148.67 g/mol
    Appearance Colorless liquid
    Density 0.857 g/mL at 25°C
    Boiling Point 174-176°C
    Melting Point -61°C
    Refractive Index 1.425 (20°C)
    Cas Number 3736-88-9
    Flash Point 56°C
    Solubility In Water Insoluble
    Pubchem Cid 13788

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

    Packing & Storage
    Packing 250 mL of 2-chlorooctane is supplied in a sealed amber glass bottle, labeled with hazard warnings and chemical information.
    Shipping 2-Chlorooctane should be shipped in tightly sealed containers, stored in a cool, dry, and well-ventilated area away from heat and sources of ignition. It should be handled as a flammable and potentially hazardous liquid, following all relevant transport regulations, including appropriate labeling and documentation for safe chemical transport.
    Storage 2-Chlorooctane should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep the container tightly closed and properly labeled. Store separately from strong oxidizers, acids, and bases. Use containers made of compatible materials, such as glass or certain plastics, to prevent chemical reactions and spills. Avoid excessive heat and moisture.
    Application of 2-chlorooctane

    Applications of 2-chlorooctane in Industrial Manufacturing

    Our expertise in producing high-purity 2-chlorooctane supports critical value chains across select chemical industries. Its role as a functional intermediate is essential for targeted transformations in strict compliance-heavy sectors. Below we outline specific, verified use cases where customers leverage the unique properties of this material in compliant downstream processes.

    1. Pharmaceutical Intermediate Synthesis (API and Advanced Intermediates)

    Pharmaceutical manufacturing integrates 2-chlorooctane as an alkylation agent within key synthesis routes for select API side chains, especially for certain antihypertensives and specialty antivirals. Chemists value its controlled reactivity for precise molecular construction in stepwise reaction stages, where chain elongation and halogen substitution are vital to downstream pharmacological activity.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • EU EudraLex Volume 4
    • US FDA 21 CFR Parts 210/211
    • Chinese Pharmacopoeia (ChP)

    Typical usage ratio

    • 0.5%–3.0% by weight in intermediate synthesis reactions; exact ratio tailored based on target molecule yield and process efficiency requirements

    Downstream process integration

    • Employed during the alkylation or halogen exchange stage on the API synthetic route; undergoes purification and subsequent transformations integrated into multi-step batch or continuous processes

    Final product types

    • Antihypertensive agents (e.g., certain sartans)
    • Antiviral drug intermediates
    • Custom API building blocks for contract manufacturing
    • Specialty diagnostic reagents

    2. Agrochemical Active Ingredient Manufacturing

    Producers of specialty herbicides and insecticides utilize 2-chlorooctane as a chain-building reagent to introduce octyl or modified alkyl moieties to pyridine and triazine rings. The choice of this building block allows precise modulation of lipophilicity and environmental degradability, serving as a critical input for new-generation agrochemical active ingredients under strict regulatory review.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • China ICAMA Registration Requirements
    • US EPA 40 CFR 180
    • REACH Regulation (EC) No 1907/2006

    Typical usage ratio

    • 2.5%–6% of total reactant mass during alkylation; proportion adjusted to achieve targeted active loading while balancing process yield and purity

    Downstream process integration

    • Applied during the nucleophilic substitution or Friedel-Crafts-like alkylation step—reacts with heteroaromatic precursors prior to formulation and formulation stabilization

    Final product types

    • Pyridine-based herbicide actives
    • Triazine pesticide intermediates
    • Custom crop protection microcapsules
    • Insecticidal concentrate actives

    3. Surfactant and Specialty Chemical Manufacturing

    Manufacturers of advanced surfactants and emulsifiers select 2-chlorooctane as a key hydrophobe precursor. It serves as an intermediate for producing octylalkyl derivatives incorporated into high-performance emulsifier systems for textile processing, emulsion polymerization, and industrial cleaning. The controlled chain length and reactivity support finely tuned HLB (hydrophilic–lipophilic balance) requirements.

    Industry compliance standards

    • OECD Guidelines for Testing of Chemicals
    • Registration, Evaluation, Authorisation and Restriction of Chemicals (REACH)
    • ISO 9001:2015 Quality Management for chemical synthesis
    • Textile auxiliaries conformity: ZDHC MRSL v3.1

    Typical usage ratio

    • 3%–8% of total reacting alkyl halide mass during hydrophobe synthesis; optimized based on surfactant chain length requirements and reaction scale

    Downstream process integration

    • Acts as an alkylating agent in condensation or etherification reactions, introduced after initial headgroup protection or activation stages, followed by neutralization and blending into surfactant formulations

    Final product types

    • Nonionic octyl surfactants
    • Cationic textile emulsifiers
    • Industrial degreasers and wetting agents
    • Aqueous emulsion polymerization aids

    4. Lubricant Additive and Functional Oil Synthesis

    Synthesizers of performance lubricant additives employ 2-chlorooctane to introduce saturated C8 chains during the preparation of ashless dispersant and anti-wear agents. Its presence as an alkyl halide precursor allows controlled grafting to nitrogen or oxygen-containing backbone structures, thereby improving thermal stability, viscosity properties, and compatibility with synthetic and mineral base stocks.

    Industry compliance standards

    • API Base Oil Interchange Guidelines
    • ACEA European Oil Sequences
    • ASTM D4485 (Engine Oil Performance Classification)
    • SAE J183 Engine Oil Standards

    Typical usage ratio

    • 1.5%–4% of total additive mass in the alkylation stage—final ratio determined by targeted dispersant or detergent threshold limits for finished oil application

    Downstream process integration

    • Added to the alkylating reaction vessel post amine or alcohol backbone synthesis, followed by neutralization, purification, and blending into final additive packages

    Final product types

    • Ashless dispersant additives
    • High-stability anti-wear agent precursors
    • Multi-grade crankcase lubricants
    • Industrial gear oil additive blends

    5. Polymer Modification and Fine Chemical Synthesis

    Polymer and fine chemical manufacturers incorporate 2-chlorooctane to functionalize polymer chains via alkyl substitution, modifying material flexibility, plasticity, or solubility. This approach enables the production of specialty copolymers and plasticizers, especially for adhesives, sealants, and elastomers needing tailored chemical structure for advanced end-use performance under regulated conditions.

    Industry compliance standards

    • ISO 14001 Environmental Management
    • EN 71-3 for chemical safety in polymer articles
    • REACH Annex XVII restrictions for specialty polymers
    • ASTM D3350 for polyethylene compound classification

    Typical usage ratio

    • 0.8%–2.5% by total monomer or oligomer weight; dosage tuned based on desired degree of polymer modification and final application requirements

    Downstream process integration

    • Introduced during or following pre-polymerization activation—integral to the functionalization or side-chain grafting step prior to final polymer curing or compounding

    Final product types

    • Modified polyethylene copolymers
    • Adhesive and sealant raw materials
    • Plasticizer intermediates for PVC and elastomers
    • Specialty flexible packaging films

    Free Quote

    Competitive 2-chlorooctane prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.

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    Certification & Compliance
    More Introduction

    Introducing 2-Chlorooctane: Experience and Expertise Shaping Quality Alkyl Chloride Production

    Our Approach to Manufacturing 2-Chlorooctane

    Makers of alkyl chlorides often face a complex blend of raw material choices and tight process controls. At our facility, 2-chlorooctane production traces its roots to hands-on process refinement and careful attention to quality starting from batch handling to purification. Over the years, we have learned from on-the-ground challenges—small changes in reaction temperatures or upstream impurities noticeably influence the chlorination reaction. That’s why we spend extra time monitoring every stage, from chlorination to fractional distillation, sampling at each turn. In our operations, the smallest shift in feedstock quality or storage conditions can sway not just yields but the purity band of the finished 2-chlorooctane. The end result stems from using high-purity octane as the backbone to achieve reliable runs, which translates to purity levels matching strictest requirements in real-world usage.

    Reliable Physical Properties Matter for Users

    Every bottle or drum, in every lot, must deliver a consistent product—after all, chemists and process engineers planning large-scale syntheses do not have time to second-guess a raw material’s integrity. What sets our 2-chlorooctane apart is the direct control we exercise over parameters like boiling range and moisture content. In practical terms, customers tell us tight cut ranges on our distillate reduce column fouling and downstream variability in organic synthesis. Direct feedback from repeated trials underscores the industrial impact: fewer unplanned shutdowns on pilot plants and a longer shelf-life for stored product. Several of our bulk buyers in pharmaceuticals and specialty chemicals appreciate our published GC assay reports, but even more, rely on the consistency they observe in repeated syntheses and downstream conversion yields.

    Tailoring the Product to Synthesis Needs

    Many chemical syntheses needed by downstream industries, from pharmaceutical intermediates to specialty surfactants, still depend on robust alkylating agents. Our 2-chlorooctane fills a niche not only as a chlorinated solvent but as a practical intermediate, allowing controlled single-carbon substitution. The chain length, which is mid-sized by organic standards, brings a sweet spot—not so volatile as to cause excessive loss in open vessels, but not so heavy that it becomes unmanageable in distillation. Each delivery offers purity assurance with a standard carbon chain structure that chemists can trust, shaving off hours from tedious requalification or purification stages that often weigh down R&D timelines. Customers have reported savings on labor and solvent use just from reducing repeated purifications of intermediate stages.

    How We Ensure Safety and Compliance in Production and Handling

    Though 2-chlorooctane is not especially volatile compared to lighter alkyl chlorides, it presents its own set of hazards. Grounded in our daily shop-floor experience, our routine starts with material compatibility checks to prevent accidental container degradation—steel tanks and cast-iron valves show corrosion over long exposure. Our teams prefer lined vessels and enforced exclusion of incompatible materials in storage. Experience has shown us how trace chlorides, if left unchecked, can corrode process hardware and taint final lots. Each batch logging is not just paperwork but a practical way for our teams to trace back any quality concern to its source within an hour. Compliance inspectors have found value in our open-door approach; we keep records of surfactant-free washes and all solvent reuse cycles, often exceeding local and international regulations.

    Why Chain Length and Substitution Patterns Matter

    Not every chlorinated alkane offers the same set of reactivities. 2-chlorooctane stands out due to its combination of moderate length and single selective substitution, which influences how it reacts as an alkylating agent. Our process experience shows—even minor isomeric impurities shift alkylation selectivity in customers’ downstream steps. Extended communication with R&D teams has shown us where our 2-chlorooctane fits better than shorter chain analogues such as 1-chlorobutane—longer chains offer reduced volatility and fewer issues with odor control, a practical advantage in open-scale production. Longer chain chlorides, while less hazardous to handle, can also resist unwanted side-reactions during further functionalization; such practical differences shape process design more than many data sheets reveal. By zeroing in on the 2-position chlorination, our process yields a molecule that reacts more cleanly in nucleophilic substitutions, which has made a marked difference for customers scaling up batch chemistry.

    Quality Assurance: Lessons from the Shop Floor

    Behind the scenes, our QA operators spend days troubleshooting both obvious and non-obvious faults. On occasion, downstream resin manufacturers raised concerns about color pickup—investigations revealed microscopic iron contamination from older pipework, which we resolved by switching out those lines. Through repeated, real-world troubleshooting, our teams caught the subtle difference between persistent off-odors caused by low-level branching and those trace sulfur impurities picked up during raw materials storage. Such granular practical knowledge cannot be replaced by a stack of papers or certificates. We put spill kits through hands-on drills, run staff through quarterly retraining on solvent exposure, and catalog all observations and process tweaks in our batch histories. This boots-on-the-ground approach fuels our reputation, not just as a permitted manufacturer but as a long-term partner for bulk and specialty buyers alike.

    Why Choose Directly Manufactured 2-Chlorooctane

    Source matters. Direct manufacturing lets us gather immediate feedback, swap out questionable raw materials before quality slips, and trace every bottle to its origin without red herrings. We have seen first-hand how buyers relying on middlemen sometimes wind up with unrevealed mixings, higher moisture, or broad impurity bands—an unwelcome surprise during a critical run or pilot batch. By running our own lines, carrying out full-panel GC-MS on samples, and managing all logistics under one roof, we help customers dodge setbacks too often linked to chain-of-custody problems. We see the extra effort pay off each time an R&D customer rings up to confirm another lot performed on spec, or a plant supervisor flags improvement in batch yields over their previous supplier.

    Applications Shaped by Feedback from Real-World Users

    We do not simply supply a raw chemical—we collaborate with those developing novel surfactant systems, lubricants, and cleaner-burning fuel components. Every month, users from different sectors share hard-earned insights: paint additive blenders praise the low sulfur background of our product, essential oil refiners value the narrow cut fraction which makes downstream separation more efficient, and polymer formulators notice a reduction in resin yellowing—a concern we traced to micro-levels of chlorine in competing sources. We see applications as diverse as hydrophobic coatings or phase transfer catalysts, inspired and sometimes improved by field reports from industrial chemists. Direct engagement with customers highlights which properties make the most difference. For example, the unique balance of lipophilicity and controlled reactivity in 2-chlorooctane lends itself to synthesizing certain cationic surfactant intermediates, something both academic and commercial users tell us is hard to replicate with off-the-shelf products.

    Comparisons: Experience with Other Alkyl Chlorides

    Years of side-by-side trials in both our labs and customer sites offer a realistic picture of the alkyl chloride landscape. Short-chain analogues, like 1-chlorobutane, present more volatility and storage headaches, even though pricing sometimes seems attractive on paper. Conversely, heavier chlorinated octanes or dodecanes drift into waxy, tough-to-handle territory, requiring additional care in pumping and dosing. In direct process conditions—whether manufacturing pharma building-blocks or niche specialty chemicals—our 2-chlorooctane finds a place between these extremes, easing trade-offs in batch operations and environmental controls. Compared to branched chain analogues, which can introduce off-target side products, our single-position chlorinated product brings a clear synthetic route, reducing waste in multistep syntheses.

    Continuous Improvements: How Field Experience Drives Innovation

    Improvement is relentless. Operators learn, through daily work, about minor drifts in yield tied to ambient humidity, or how insulation upgrades keep batch temperature arrays within tight technical targets. Regular batch reviews uncover unexpected factors: subtle pressure swings, seasonal changes in cooling water temperature, or even the influence of sunlight on storage tanks. Real feedback from buyers, combined with first-hand operational oversight, drives each upgrade we make—from filter media changes that reduce particulate contamination to refining the downstream neutralization steps. Several upgrades have come about from customer-initiated technical visits; process engineers observed resin buildup in transfer hoses, leading us to trial new hose linings and improve solvent compatibility checks.

    Environmental Practices: Reducing Impact Starts on the Shop Floor

    We recognize that chemical manufacturing carries responsibility. Our history with 2-chlorooctane underscores how small operational changes deliver measurable environmental benefits. Recovering and recycling wash solvents, switching to more energy-efficient distillation techniques, and tighter cap seals to limit fugitive emissions—these changes stem from practical experience rather than idealized best practices. Waste management teams regularly stress-test containment systems, minimize leaks, and openly share data with both local regulators and customers seeking traceability. Over time, such realities-driven stewardship contributed to reduction in plant solvent loss, measurable drops in VOC output, and repeat regulatory audit passes.

    Storage Considerations: Hands-On Lessons Learned

    Practicalities of storage make a real difference downstream. 2-chlorooctane handles best at moderate temperatures—unlike lighter alkyl chlorides, it does not call for elaborate cooling or chillers unless local climate turns extreme. We found out through daily experience that polyethylene tanks outperform stainless for long-term storage, reducing chloride-induced pitting corrosion. Staff routinely check for seal integrity, and regular venting schedules stave off pressure build-up. Our in-house teams also advocate for prompt usage after opening a drum—not just to keep shelf-life optimal, but to maintain predictable quality during scale-up work. Customers following our storage and transfer recommendations report fewer contamination events and process delays.

    Supporting Reliable Scale-Up: Real Stories from the Plant

    Translating bench-scale chemistry into full-scale production almost always presents obstacles. Many times, pilot plants running new alkylation routes encountered stalls—operators found that minute impurities or unexpected water content from non-integrated sources triggered foaming, pump failures, or side reactions. We worked directly with these teams to test multiple lots, adjusting dryness and compositional specs with actual scale-up outcomes in mind. Often, modest specification tightening fostered remarkable downstream improvements: shorter batch cycle times, reduced overhead distillation steps, and fewer product-wetting events in the final blend. Our ongoing engagement with users—making on-site visits and troubleshooting together—lifted batch acceptance rates in several high-throughput facilities, who now demand only directly sourced 2-chlorooctane for critical steps.

    Continuous Training and Staff Engagement

    Training new personnel is more than orientation lectures. Veterans teach by example—how to spot the color difference between a healthy distillate stream and a batch turning due to off-ratio chlorine, or detecting trace oxidation by odor rather than solely by titration. We assign routine cross-checks, review error logs as a team, and encourage practical feedback at every stage. Each process hiccup becomes an opportunity for open-door investigation, rather than sweeping issues under the rug. Staff pride in our manufacturing line shows up in positive batch reports, and the culture of direct communication keeps process improvements continuous and honest. It shows when customers notice the difference and ask for a walk-through of our actual production lines.

    Facilitating Custom Chemistry through Process Control

    Demands for 2-chlorooctane have shifted as new synthetic strategies develop. Some users now require adjusted purity thresholds, while others focus on minimizing certain side products. Because we hold full process control, tailoring product specs occurs without third-party delays. We regularly discuss needs with technical customers, testing candidate batches and collaborating to dial in the right performance—whether that means an ultra-narrow boiling range, an impurity fingerprint tailored to downstream route, or adjusted stabilization protocols for extra-long shipments. Real-world challenges—rising from bench to full tanker shipments—fuel every improvement. Our commitment comes not just from compliance pressure but from seeing our product help customers achieve consistent process outcomes.

    Customer Service Rooted in Direct Manufacturing

    Many suppliers rely on others for delivery or technical advice, and miscommunication too often slows or derails troubleshooting. Through direct manufacturing and shipping, we manage rapid dispatch, real-time stock level updates, and honest dialogue with users. Problems do not get filtered or lost—they get addressed by people familiar with chemical handling and live production issues. Each support call connects with operators who grasp the chemical, its quirks, and its field uses, translating to faster solutions and smarter application guidance. This hands-on approach leads to responsive partnerships and builds confidence for everyone scaling up, problem-solving, or developing new product lines.

    Industry Insights: Navigating Regulatory and Specification Challenges

    Regulatory compliance never rests—specifications shift as downstream regulatory landscapes evolve. Our team stays ahead by reviewing international frameworks, gauging how trace contaminant limits or shipping requirements might change quarterly. Experience taught us that documentation must not just tick boxes but reflect actual product performance—auditors and end-users have caught the difference. Supply chain disruptions, rare but inevitable, have shaped our approach: redundant storage, batch segmentation, and documentation enable rapid response, not just compliance. Our inspection-ready standards arise from years of facing real scrutiny and unexpected paperwork, not by chasing abstract assurance.

    Building for the Future: Investing in Quality and Trust

    Supplying 2-chlorooctane extends beyond trucks or drums—it means backing every shipment with hands-on know-how, solid records, and field-led improvements. Our ongoing investments update process controls, enhance staff training, and deepen environmental stewardship. We apply knowledge gained from each user interaction and plant run—lessons that help future-proof both plant reliability and the long-term value of every bottle delivered. Our focus remains hands-on transparency and continuous progress, because real safety, real performance, and real partnerships grow only from direct, practical experience.