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Allylcyclohexane

    • Product Name Allylcyclohexane
    • Alias Cyclohexylpropene
    • Einecs 202-933-8
    • 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
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    Specifications

    HS Code

    933010

    Chemicalname Allylcyclohexane
    Molecularformula C9H16
    Molarmass 124.23 g/mol
    Casnumber 930-68-7
    Appearance Colorless liquid
    Boilingpoint 180-182 °C
    Meltingpoint -86 °C
    Density 0.83 g/cm³
    Refractiveindex 1.455
    Flashpoint 55 °C
    Solubilityinwater Insoluble
    Vaporpressure 1.3 mmHg (25 °C)
    Odor Mild, hydrocarbon-like

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

    Packing & Storage
    Packing Allylcyclohexane is packaged in a 100 mL amber glass bottle with a secure screw cap and detailed hazard labeling.
    Shipping Allylcyclohexane is shipped as a flammable liquid. It must be packed in tightly sealed, chemical-resistant containers, clearly labeled with hazard symbols. Transport requires compliance with international regulations (UN number: 3295), ensuring protection from heat, sparks, and open flames. Appropriate documentation and emergency procedures should accompany all shipments.
    Storage Allylcyclohexane should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers. Keep the container tightly closed when not in use. Use only containers made from materials compatible with organic hydrocarbons. Store away from heat, sunlight, and strong acids, following all relevant safety guidelines and regulations.
    Application of Allylcyclohexane

    Applications of Allylcyclohexane in Industrial Manufacturing

    As a direct manufacturer, we supply allylcyclohexane to a range of advanced industrial sectors. Each market demands specific performance criteria, precise raw material controls, and adherence to strict regulatory frameworks. The following sections detail our material’s key applications across different industrial routes, supported by typical compliance, usage, process, and end-use information for B2B partners.

    1. Synthesis of Specialty Polymers for UV-Curable Coatings

    Leading coating and ink producers use allylcyclohexane as a reactive intermediate to introduce cyclohexyl and allyl functionalities into UV-curable oligomers. During resin polymerization, formulators incorporate it to achieve targeted balance of flexibility, hardness, and chemical resistance demanded by electronics and high-gloss furniture sectors. Regulatory approval centers on minimizing residual monomers and ensuring total conversion. The feed ratio depends on crosslink density and viscosity requirements, with adjustments following end-use and local solvent emission limits. Manufacturers dose via controlled addition after prepolymer or initiator loading for precise integration. This downstream route yields high-performance, rapid-cure topcoats, protective clearcoats, and pigmented formulations designed for demanding industrial and decorative uses.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006
    • RoHS Directive 2011/65/EU for electronics coatings
    • ISO 9001:2015 certified formulation and QC process
    • VOC compliance per European and US EPA guidelines

    Typical usage ratio

    • 5–15 wt% of oligomer formulation; variations based on crosslink density, flexibility, and reactivity requirements

    Downstream process integration

    • Added post-initiator; mixed during controlled temperature polymerization; monitored for residual monomer; pre-cured into bulk resin feed for coatings line

    Final product types

    • Electronic device housings
    • High-gloss wood and plastic topcoats
    • Graphic printing inks
    • Maintenance-free industrial floor coatings

    2. Intermediate in Pharmaceutical Fine Chemical Synthesis

    In the pharmaceutical sector, process chemists utilize allylcyclohexane as a key starting material during the synthesis of advanced cyclohexyl derivatives. These intermediates serve as building blocks for small-molecule APIs targeting CNS and cardiovascular therapeutic segments. Strict GMP and traceability provisions apply to all sourcing and handling. The inclusion rate adjusts based on stoichiometric calculations relative to the target yield and purity, typically determined from route-specific reaction balances. The intermediate enters batch or continuous-flow reactors following initial charge of oxidants or catalysts, with post-reaction purification governed by FDA guidance for multi-step synthesis. End users integrate the resulting refined intermediates into stepwise processes leading to finished APIs.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • 21 CFR Part 210/211 (US FDA)
    • Ph. Eur., USP for process intermediates control
    • Comprehensive batch record documentation

    Typical usage ratio

    • 1:1–1:1.5 molar ratio to limiting reagent, precisely calculated for each reaction route and target intermediate

    Downstream process integration

    • Charged into primary reaction vessel; reacts under controlled temperature and pressure; followed by phase-separation, distillation, and further synthetic conversion

    Final product types

    • Small-molecule CNS drug intermediates
    • Beta-blocker pharmaceutical actives
    • Custom cyclohexylamines for medicinal chemistry
    • Chiral building blocks for advanced synthesis

    3. Modifier in Adhesives and Elastomer Manufacturing

    Producers of specialty adhesives and elastomeric sealants use allylcyclohexane to modify mechanical properties and crosslink density in custom formulations. Its specific cycloaliphatic structure imparts resistance to solvents and degradation, making it suitable for weather-resistant, structural, or high-flex applications. Compliance depends on adherence to chemical-specific and regional material safety standards for consumer and industrial adhesives. Dosage levels vary by polymer backbone and performance objectives—usually fine-tuned after application and in-house testing. Integration generally takes place during the masterbatch blend or in pre-polymer reactive stages; monitoring ensures consistent distribution for uniform property development. Resulting end products meet the performance levels required for automotive and building construction.

    Industry compliance standards

    • EN 923:2015 for adhesives terminology and performance
    • ASTM D4236 (US) labeling for consumer safety
    • ISO 14001 for process environmental management
    • REACH Annex XVII (EU) for restricted substances

    Typical usage ratio

    • 2–8 wt% in final adhesive or elastomer composition; tailored for required flexibility, bonding strength, and resistance

    Downstream process integration

    • Blended into polymer masterbatch with other modifiers; introduced during pre-polymerization or compounding; followed by extrusion or mixing with curing agents and fillers

    Final product types

    • Exterior construction sealants
    • Automotive weatherstrip adhesives
    • Structural bonding tapes
    • Specialty elastomeric moldings

    4. Intermediate in Agrochemical Synthesis

    Agrochemical manufacturers use allylcyclohexane in multi-step synthesis processes for selective crop protection agents and advanced herbicidal compounds. The structure supports development of specific cyclohexyl-based analogs with desired bioactivity profiles. Compliance hinges on alignment with both chemical registration systems and residue controls specified by geographic region. Dosing is strictly defined in synthesis protocols for reaction selectivity, commonly based on predefined molar excess relative to halogenation or functionalization reagents. The molecule is introduced during defined reaction stages, frequently under inert or anhydrous conditions in stainless reactors, before downstream work-up and formulation. Final active ingredients are then used by formulators for blending into finished crop protection products.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practice (GLP)
    • Directive 91/414/EEC (EU) for plant protection product registration
    • EPA 40 CFR 180 tolerances in the US
    • JAS Law (Japan) for agrochemical intermediates

    Typical usage ratio

    • 0.8–1.2 molar equivalents per key reaction step; optimized to balance conversion and downstream purification

    Downstream process integration

    • Loaded to reactor following base catalyst or functionalization agent; subsequently isolated and transferred for further derivatization or purification; batch records maintained throughout

    Final product types

    • Selective herbicide active ingredients
    • Pesticide intermediates
    • Precursor compounds for formulation of crop protection products
    • Advanced cyclohexyl analogs under field trial

    5. Functional Additive for Advanced Lubricant Base Oils

    Leading lubricant compounders employ allylcyclohexane to modify synthetic base stocks, particularly in premium-grade engine and industrial oils. Its structure enhances oxidative stability and viscosity index, supporting the unique demands of high-temperature and extended-life lubricants. Compliance procedures align with global lubricant specifications and local health and safety registrations for industrial fluids. Integration ratios are decided by laboratory blending and performance target, affecting low-temperature operability and resistance to deposit formation. Most operations introduce it during the additive blending phase, with QA testing for distribution and stability prior to package filling. Finished lubricants deliver improved durability, suitable for advanced machinery and extreme service cycles.

    Industry compliance standards

    • API SN/CF and ACEA 2021 classifications for lubricants
    • DIN 51502 for industrial oils
    • ISO 9001:2015 for manufacturing process
    • CLP Regulation EU 1272/2008 for safety documentation

    Typical usage ratio

    • 0.5–2 wt% in finished synthetic base oil; tuning based on performance benchmarking and field test requirements

    Downstream process integration

    • Blended into fully formulated lube packages after primary base oil selection; homogenous mixing; followed by QC analysis for volatility and oxidative stability

    Final product types

    • High-performance automotive engine oils
    • Industrial hydraulic fluids
    • Polymer-based grease formulations
    • Compressors and gear oil specialties

    6. Precursor in Fragrance Ingredient Manufacturing

    Major producers of aroma chemicals convert allylcyclohexane in a staged sequence for cyclohexyl-derived fragrance intermediates. The cycloaliphatic core supports production of high-value aroma actives with unique green and woody notes. Regulatory norms concentrate on IFRA and EU Cosmetics Regulation for allergens and impurities. Typical transformation utilizes stoichiometric ratios optimized for product yield and olfactory profile, with adjustments following organoleptic evaluation by perfumers. Manufacturers introduce allylcyclohexane to batch reactors or continuous columns post-solvent loading, following with distillation and fractionation to generate odorant intermediates. These intermediates undergo secondary reactions for incorporation into mass-market and fine fragrance compositions.

    Industry compliance standards

    • IFRA (International Fragrance Association) Standards and Guidelines
    • EC Regulation No 1223/2009 on cosmetic products
    • Good Manufacturing Practice ISO 22716
    • Allergen quantification per EU Cosmetics Regulation

    Typical usage ratio

    • 1.0–1.3 molar equiv. per batch; fine-tuned for target odorant yield and purity

    Downstream process integration

    • Dosed into first-step conversion for cyclohexyl-based intermediate; followed by distillation and refinement; secondary processing to final aroma chemicals

    Final product types

    • Green/woody cyclohexyl fragrance bases
    • Fine chemicals for perfumery
    • Aroma compounds for detergents and home care
    • Flavor and fragrance intermediates for consumer goods
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    Certification & Compliance
    More Introduction

    Allylcyclohexane: Real Production Value, Not Hype

    The Heart of Tailored Synthesis: A Manufacturer’s Insight

    Inside the doors of our main synthesis building, each batch of Allylcyclohexane reflects a couple decades of hands-on trial and error. We know this material from the inside out, because we built this process to meet chemists’ actual demands, not just to fill an order. Our model for Allylcyclohexane comes direct from our own reactors, always following strict process discipline, and the product has earned a steady reputation among professionals who have better things to do than micromanage feedstock gradients.

    Allylcyclohexane isn’t your typical packaging, rebranded once or twice down a supply chain. Our team handles everything, from raw material selection at loading docks to final quality batch review. Skill with color and clarity matters here; the finished product comes out transparent and colorless, as required, but clarity doesn’t guarantee true quality. Real value lies in the GC purity we consistently pull above 98.5 percent, and we don’t just lean on numbers from certificate printouts. Every drum goes through verification—by actual people, not just data loggers.

    Why Allylcyclohexane Matters

    We work directly with formulators in fragrance, lubricant, and specialty monomer spaces. Each customer has a unique metric for success, but they all point back to reliability. Allylcyclohexane offers a blend of physical stability and reactivity. Developers respect its low boiling volatility, which shows up as fewer headaches during process integration. Fluid at room temperature with an appealing set of volatility curves, it slides into multi-step syntheses or intermediate storage with less drama at the loading dock.

    Fragrance houses chase consistency batch after batch. Our customers rely on Allylcyclohexane because minor impurities sometimes punch above their weight—spoiling a perfume blend or wreaking havoc in polymer initiations. We routinely invest in better fractional distillation systems. Over time, small changes in condenser draw-off and vacuum calibration showed up in cleaner final product. Unlike some materials that get away with “good enough,” this compound reveals its differences readily in finished applications.

    What Sets Our Allylcyclohexane Apart

    On the surface, Allylcyclohexane seems straightforward, sitting in a catalog among dozens of saturated and unsaturated hydrocarbons. Its structure—cyclohexane ring with an allyl group—may look unremarkable. But side reactions during synthesis, water ingress, or slight impurities in base cyclohexane or allyl chloride often impact the final purity. Experienced buyers have seen materials from resellers coming cloudy or with persistent off-odors. These subtle flaws sabotage downstream steps—nobody wants to troubleshoot an unexplained yield drop in a multi-ton batch.

    We keep our feedstocks under continuous inert blanket and maintain strict batch segregation. Routine GC-MS tagouts ensure that each lot avoids cumulative contamination. We don’t bulk up inventory and let it degrade on the shelf, so every drum arrives fresh. Shelf life stands on careful storage and not on paperwork or clever packaging.

    Applications That Care About the Details

    Allylcyclohexane never finds its way into blockbuster consumer products headlines, but a fair share of craft comes from the back rooms of custom manufacturing. Three major uses stand out: advanced fragrance synthesis, alkylation chemistry for complex molecules, and building blocks for certain specialty polymers.

    Our direct engagement with R&D teams led us to tweak some legacy process variables—a small change in reaction temperature or condenser efficiency might only shift yields by a couple percent, but that margin pays real dividends downstream. Customers using Allylcyclohexane as a fragrance intermediate report fewer unplanned halts for cleaning or byproduct removal. These shops need reliability between runs, since aromatic notes demand precision beyond bulk chemical standards.

    In specialty polymer work, formulators notice how every minor impurity can affect initiator performance or final molecular weights. We spent months tuning distillation parameters to manage those edge-case byproducts most catalogs won’t mention. These might not carry ominous hazard labels, but they scramble reactions just the same. Engineers running continuous alkylation lines have shared data showing how a fraction of a percent in purity shifts overall conversion efficiency—and we took those numbers back to our R&D group until each batch met new standards.

    Differences from Other Hydrocarbon Intermediates

    In market surveys, Allylcyclohexane is sometimes compared to other cycloalkanes or unsaturated hydrocarbon intermediates—cyclohexene, allylbenzene, and dicyclopentadiene show up often. These other choices have their place in synthetic routes, yet they each bring trade-offs. Cyclohexene’s double bond improves reactivity but risks unwanted polymerization in storage, complicating shelf life. Allylbenzene’s aromatic ring lingers in the finished product, pushing the volatility too low for some rapid processing. Dicyclopentadiene’s bulk and reactivity present handling concerns and often require dedicated equipment.

    Allylcyclohexane finds its niche in the middle. Stability lets it ride through storage and shipping, avoiding headaches at the receiving end. The compound’s saturated backbone balances between too much reactivity and not enough. Its mild odor poses fewer interference issues in fine fragrance work compared to aromatic relatives. For specialty applications, its metabolic and toxicological profile registers as less of a concern compared to some structural analogs with aromatic rings or unsaturated arms.

    Why Process Control Matters

    Most users don’t see what goes into getting an intermediate right. Behind every drum, our operators run hours of cleaning cycles between batches. We designed the reactors and purification trains ourselves, opting for extra condenser stages even where cost modeling said it’d be fine to skip. On the plant floor, we rely on local monitoring rather than remote cameras. Real-time sample pulls let us catch potential off-target reactions before they cascade. If an overnight run drifts out of spec, someone corrects it on the spot.

    Suppliers that only trade or resell finished product miss the nuance. When you own the process from start to finish, it’s your responsibility to update batch methods with each new customer application. If a batch comes back with a performance question, we open up the lab notebook and trace each variable. It’s not about perfection—nobody achieves flawless outcomes every run—but the learning curve pays off. Over time, the average batch quality ticks up, and so does customer trust.

    Working With End Users Directly

    We prefer working hands-on with formulators and production chemists. Our customer feedback never comes through an anonymous survey or post-sale chatbot. Instead, chemistries and process issues show up in direct calls: “This blend co-distilled some off-flavor on the third run, any chance it matches a byproduct reported in your GC traces?” These conversations sharpen our understanding of how trace impurities propagate through real-world use. We encourage feedback—even the harsh kind—because it keeps our plant honest.

    Improvements start on our benches, but the biggest shifts come from field reports. One of our customers, working out of a niche specialty chemical plant, flagged a background haze in their end product. Our engineers rechecked storage and handling steps, then pulled in their team for joint troubleshooting. That led to a switch in drum lining material and routine pre-shipment visual checks rather than relying only on chromatographic data.

    Environmental and Regulatory Perspective

    No chemical plant gets to claim “green credentials” for business as usual. Allylcyclohexane production starts with prudent raw material sourcing—never chasing cheap, variable suppliers for the sake of margin. Waste streams run through in-house solvent recovery, sending less to contracted disposal. We stay tuned to changing regulatory requirements, especially where low-boiling hydrocarbons risk classification changes. In recent years, we invested heavily in leak detection and sealed loading systems.

    Every new application potentially shifts environmental exposure limits, so we keep our compliance team directly involved whenever a customer reports a change in permitting. We report complete compositional data on request and maintain multi-step tracking from feedstock to final shipment. These measures don’t win awards, but they reduce process headaches and help our customers clear their own audits. Product transparency improves every year just from following these habits.

    How Reliability Lowers Total Cost

    Many manufacturers still look at the per-kilo price and forget how production hiccups multiply cost. A customer who switches to our Allylcyclohexane mid-process will sometimes share the post-mortem: less downtime, fewer scrap batches, and better compliance traceability mean the switch pays for itself. Watching a blend go smoothly through the distillation line, knowing the flash-point and vapor pressure specifications will hold true batch after batch—these are hard-won wins.

    Plants running legacy formulations on old hardware appreciate minor improvements: drums that pour cleanly, product that resists local storage degradation, and clear labeling that ties back to batch records without detective work. Those details don’t make it onto front-page brochures, but on the operating floor, they show up as hours saved. For decades, we have structured production around those who have to live with the product in real-world plant conditions, not just in technical catalogs.

    Looking Forward: Continuous Improvement

    Chemistry doesn’t reward standing still. Over recent years, we invested both in new lab analysis and plant improvements based on real user input. Allylcyclohexane remains a reliable hydrocarbon intermediate, but every quarter or so, we find a small tweak—optimizing filtration materials, revisiting a distillation step, or tightening up shipping protocols.

    Our senior chemist keeps his lab books stacked along the wall, each noting process trials, customer calls, and off-spec events. New applications—sometimes in regulatory-driven replacements, sometimes in advanced material blends—push us to test fresh combinations and consider new instrumentation. As we pick over these notes, small process shifts accumulate, and quality trends upward across all outgoing batches.

    Why Direct Manufacturing Changes Everything

    It matters whether your Allylcyclohexane came off a system designed and run by technical staff, or got sourced through layers of brokers. We stake our name on each batch—down to the floor operator who signs off before a drum leaves. Feedback rolls straight back to the team that can fix it. We don’t have the luxury of blaming vendors or outdated procedures; the work and accountability sit here.

    Relying on our own process makes possible steady improvements. We run pilot lines alongside main production streams and keep logs on every step, not just final analysis. If an impurity spikes, we trace it, not just quarantine a batch. Over years, we’ve learned that customer trust comes from willingness to dig into the weeds side-by-side, solving plant-floor challenges as they crop up.

    Final Thoughts: Why Invest in Quality Allylcyclohexane?

    Most procurement decisions balance price, speed, and reliability. From our side of the fence, we put our efforts behind quality because it pays you back in actual use. Chemists and plant managers don’t have time for unplanned troubleshooting or mysterious yield losses. Our approach to making Allylcyclohexane cuts downtime, brings higher reliability, and removes one more variable from your bench or production line. We’ve seen time after time that each dollar spent avoiding problems saves two on the plant floor. That’s the real lesson from two decades walking both the lab and plant floors.

    We built our business not just on specifications, but on daily conversations with the people relying on finished chemicals to make their own products shine. Investing in top-quality feedstocks, tightening up process details, shipping with full transparency, and standing by every drum—those choices keep us accountable. For every batch of Allylcyclohexane that leaves our plant, the proof shows up in your downstream reliability, not just on page one of a data sheet.