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Trans-2-Nonene

    • Product Name Trans-2-Nonene
    • Einecs 212-188-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    901995

    Chemical Name Trans-2-Nonene
    Cas Number 6434-35-3
    Molecular Formula C9H18
    Molar Mass 126.24 g/mol
    Appearance Colorless liquid
    Boiling Point 149-151°C
    Density 0.735 g/mL (at 25°C)
    Refractive Index 1.418 (at 20°C)
    Solubility In Water Insoluble
    Flash Point 31°C (closed cup)
    Isomerism Geometric (trans)
    Odor Mild, characteristic odor

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

    Packing & Storage
    Packing Trans-2-Nonene is packaged in a 500 mL amber glass bottle, sealed, with hazard labels and product details clearly displayed.
    Shipping Trans-2-Nonene should be shipped in tightly sealed containers made of compatible materials, away from heat, sparks, and open flames. Ensure adequate ventilation, label as flammable liquid, and comply with relevant transport regulations (e.g., DOT, IATA, IMDG). Handle with care to prevent leaks or spills during transit.
    Storage Trans-2-Nonene 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 and properly labeled. Store at ambient temperature and protect from direct sunlight. Use appropriate chemical-resistant containers to prevent leakage, and ensure spill containment measures are in place.
    Application of Trans-2-Nonene

    Applications of Trans-2-Nonene in Industrial Manufacturing

    As an experienced manufacturer of Trans-2-Nonene, we serve global industrial clients active in downstream sectors requiring high-purity alkenes. This material is integrated across multiple industries for its reactivity in specialty synthesis pathways. Below, we detail several precise application scenarios, including industry-specific standards, operational dosage ranges, processing stages, and typical finished products manufactured by our customers.

    1. Synthetic Lubricant Intermediates Manufacturing

    Trans-2-Nonene is primarily leveraged as a key alkylation agent in synthesizing detergent precursors for high-performance synthetic lubricants. Lubricant formulators depend on the product's controlled olefinic structure to introduce nonyl groups into aromatic rings, enhancing solubility and low-temperature stability in polyalphaolefin (PAO) and Group V base oil blends. Its use defines the performance standards of ashless dispersants sought in automotive and industrial applications, linking its addition and process parameters directly to the target molecular structures required by leading lubricant OEMs.

    Industry compliance standards

    • API SN/CF, ILSAC GF-6 standards (finished lubricant performance)
    • ASTM D4485 (Engine Oil Performance Classification)
    • REACH Regulation EC No 1907/2006 (chemical registration and safety)
    • ISO 9001 quality management for production and blending controls

    Typical usage ratio

    • Applied at 8–15% by weight in nonylated aromatic alkylation stages, depending on the desired detergent molecular weight and solubility characteristics
    • Adjusted based on the target PAO grade and specific base oil composition

    Downstream process integration

    • Fed into the controlled alkylation reactor charged with benzene or other aromatics under acid catalysis
    • Followed by neutralization, stripping, and purification to yield the finished detergent intermediate

    Final product types

    • Lubricant additive packages (e.g., nonylated diphenylamine, nonylphenol detergents)
    • High-performance fully synthetic engine oils and industrial gear oils
    • Automatic transmission fluids (ATF) and hydraulic fluids requiring enhanced deposit and oxidation control

    2. Surfactant and Nonionic Detergent Synthesis

    In the surfactant industry, manufacturers utilize Trans-2-Nonene to generate branched-chain nonylphenols, which subsequently undergo ethoxylation to form nonionic surfactants. This pathway is preferred for products demanding strong emulsification, such as agrochemical emulsifiers or hard surface cleaners. The chemical’s precise alkene geometry ensures high selectivity during electrophilic addition, allowing downstream producers to fine-tune hydrophobe-lipophile balance (HLB), a critical property for formulation customization in institutional and industrial cleaning applications.

    Industry compliance standards

    • ISO 9001/14001 for production and environmental management
    • EU Regulation (EC) No 648/2004 (Detergent Regulation)
    • Registration under REACH for nonylphenol and ethoxylate derivatives
    • Food contact regulations (for certain cleaning grades): EU 10/2011, FDA 21 CFR 175.300

    Typical usage ratio

    • The alkylation stage typically requires 9–13% by weight, based on the targeted degree of branching and resulting HLB value
    • The precise ratio selected for end product performance and regulatory requirements

    Downstream process integration

    • Introduced into the alkylation reactor containing phenol and acid catalyst
    • Alkylated intermediate purified and directed to the ethoxylation reactor for further processing

    Final product types

    • Nonylphenol ethoxylates (NPEs) for textile, leather, and metalworking fluid applications
    • Industrial detergents and emulsifiers (e.g., for pulp and paper, agriculture, cleaning chemicals)
    • Pigment dispersants in coatings and printing industries

    3. Fine Chemical and Agrochemical Intermediate Production

    Trans-2-Nonene plays a pivotal role as an intermediate in the production of alkylated active ingredients used in various plant protection products. Its linear alkene structure is suited for constructing side chains on active molecules, modulating solubility and vapor pressure. Downstream synthesis steps include Friedel–Crafts alkylation to attach nonyl groups to heterocycles or aromatics, forming key intermediates for further functionalization. Manufacturers dedicated to crop protection rely on strict process control to ensure high purity and traceability throughout the campaign.

    Industry compliance standards

    • ISO 9001 management systems and traceability (for technical-grade intermediates)
    • FAO/WHO specifications for pesticide active ingredients
    • REACH and CLP compliant supply chains in the EU
    • Strict adherence to EPA guidelines for chemical intermediates in agricultural uses

    Typical usage ratio

    • 5–11% by weight in the synthesis vessel, depending on the side-chain length and reactivity
    • Adjusted for batch or continuous synthesis lines to match seasonal demand for target APIs

    Downstream process integration

    • Dosed directly into the alkylation or cyclization reactors with aromatic/heterocyclic core substrates
    • Followed by purification and conversion steps leading to registered technical-grade active ingredients

    Final product types

    • Nonyl-substituted triazoles and azoles used in fungicides and pesticides
    • Intermediates for growth regulators and herbicide formulations
    • Active ingredients for broad-acre and specialty crop protection blends

    4. Plastics and Polymer Additives Manufacturing

    Manufacturers use Trans-2-Nonene-derived intermediates for modifier and antioxidant production in plastics processing. Nonyl groups introduced through this feedstock form stabilizer molecules designed to protect polymer chains from oxidative and thermal degradation. Integration occurs at the monomer and melt blending stages, tightly regulated for molecular structure to maintain polymer clarity and mechanical integrity. This route ensures compliance with regulations governing food contact and consumer safety in final used products.

    Industry compliance standards

    • FDA 21 CFR 177.1520 (for food-contact plastics)
    • EU Regulation 10/2011 (plastic food contact materials)
    • ISO 14001 (environmental impact for plants)
    • REACH registration for stabilizer intermediates

    Typical usage ratio

    • Antioxidant synthesis stages use 6–14% by weight, depending on polymer type (polyolefins, PVC, polystyrenes)
    • Ratio tuned according to stabilizer activity and processing temperature profiles on extrusion lines

    Downstream process integration

    • Fed into synthesis reactors with phenolic or phosphite compounds to create custom-tailored stabilizers
    • Final additives blended or compounded with plastic resins during pelletizing or extrusion

    Final product types

    • Hindered phenolic antioxidants and phosphite stabilizers for polyolefins
    • Thermal and UV stabilizers for pipes, films, and automotive interior plastics
    • Food-contact and medical-grade plastics with extended shelf life

    5. Specialty Fragrance and Aroma Chemical Synthesis

    Downstream aroma chemical producers use Trans-2-Nonene as a controlled alkylating agent to build nonyl-substituted aromatic compounds, serving as primary precursors to musks and specialty fragrance intermediates. Accurate process control at the alkylation stage determines both olfactory character and regulatory acceptability in finished aroma chemicals. This pathway is favored when producing base notes for fabric softeners, fine fragrances, and technical perfumery requiring exacting purity and compositional documentation.

    Industry compliance standards

    • IFRA Code of Practice (for fragrance safety and limits)
    • ISO 9235 (Aroma Chemicals: terminology)
    • EU Regulation (EC) No 1223/2009 (cosmetic ingredients)
    • GC-MS purity verification and batch traceability protocols

    Typical usage ratio

    • Implemented at 5–10% by weight in the primary alkylation or condensation step, adjusted according to target olfactory and volatility profile
    • Selection determined by downstream protocol—fine fragrances versus base aroma chemical intermediates

    Downstream process integration

    • Delivered into batch reactors with aromatic keto or aldehydic substrates
    • Undergoes post-alkylation refinement, distillation, and blending as per perfumery process requirements

    Final product types

    • Nonyl-substituted musks for detergents and fabric softeners
    • Base aroma chemicals formulated into compounded fragrances
    • Intermediate notes for deodorants and technical air fresheners
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    Certification & Compliance
    More Introduction

    Trans-2-Nonene: A Practical Choice for Industrial Applications

    From the Production Floor: Hands-On Experience with Trans-2-Nonene

    Years on the line and in the laboratory have taught us that the individual characteristics of every feedstock shape both downstream possibilities and day-to-day challenges. Trans-2-Nonene, a clear, colorless liquid hydrocarbon, brings particular reliability to operations driven by consistent quality and clear performance. The model we produce lands within a high-purity range, suited to the needs of manufacturers who do not have time for unpredictability. Attention at the point of distillation and efficient fractionation help us keep impurity levels tightly controlled, which translates directly into fewer interruptions and stabilized process results.

    Synthetic routes often bind product selections to not only functional group, but also to geometric configuration. Trans-2-Nonene stands out with its trans configuration around the double bond, something that makes a genuine impact during alkylation or further functionalization steps. This is not mere chemical semantics. The trans form resists unwanted side reactions that the cis isomer can trigger, especially under harsher thermal or catalytic conditions. In our plant, we find process efficiency and yields both rise when this isomeric distinction is respected – a detail proven over years, not just in a textbook.

    What Trans-2-Nonene Brings to Key Markets

    Our core customer base relies heavily on the specific performance profile of Trans-2-Nonene. It is a mainstay in the synthesis of specialized nonyl derivatives, including nonylphenol and downstream surfactant intermediates. These building blocks define the reliability of products used in detergent, lubricant, and additive markets. Decision-makers appreciate that our Trans-2-Nonene supports not just theoretical yields, but sustained batch-to-batch reproducibility, which cuts scrap rates and drives customer trust down the supply chain.

    Industrial chemists using Trans-2-Nonene know that the geometric arrangement matters during alkylation, especially in nonyl-substituted aromatic compounds. A higher trans content prevents product coloration and polymer formation during acid treatment. Several technical directors from long-standing customers have told us process troubleshooting becomes far less frequent when they standardize on a high-trans feed. That is feedback earned on actual factory runs, not just marketing surveys.

    Differentiating Trans-2-Nonene from Other C9 Hydrocarbons

    Our experience processing a range of C9 olefins, including cis-2-nonene and alpha-olefins, consistently highlights differences that matter in real-world production. Many buyers compare all C9s as if shape is an afterthought. In practice, Trans-2-Nonene exhibits both greater storage stability and less olfactory impact compared with cis-2-nonene. Odor problems, especially in closed-process environments, directly affect occupational health standards and employee satisfaction.

    In separation systems, cis isomers exhibit higher volatility and present more difficult fractionation, leading to frequent adjustment of distillation parameters and greater solvent loss. Using Trans-2-Nonene, with its more predictable vapor pressure and minimal tendency to form azeotropes, we see fewer process upsets and less off-spec rework in both continuous and batch units. Plant managers regularly report fewer fouling incidents and lower maintenance costs over extended runs.

    Performance, Purity, and Reactor Longevity

    A product’s purity is more than just a number on a data sheet. Trans-2-Nonene supplied below 99% purity starts to introduce side products, including nonene dimers and heavy fraction impurities, which can coat catalyst surfaces during downstream alkylation or oxidation. Our in-house analytical teams use gas chromatography calibrated for trace contamination, and the tight control of process parameters translates into less downtime and more active catalyst cycles. In side-by-side tests run for fine chemicals, customers repeatedly note fewer unscheduled reactor cleanouts when using our grade of Trans-2-Nonene.

    Trans-2-Nonene’s stablity against polymerization under normal storage ensures large-scale warehouses don’t face sedimentation or blocked pump systems after a few months. We run stress tests in actual bulk tanks at elevated temperatures, not just in evaporative glassware, to guard against costly surprises. This focus on long-term stability matters particularly for regional distributors who move material in bulk and only transfer to end-use when new orders emerge. These operational realities shape our batch certifications and shelf-life determinations.

    Supporting Specific Chemical Transformations

    We have seen Trans-2-Nonene find consistent use in producing alkyl aromatics, where both regioselectivity and conversion efficiency count. In large reactors, this isomer’s predictable reactivity improves target product yields and cuts down the volume of heavy-ends, which reduces waste disposal concerns. Comparing runs with mixed-isomer or lower-purity C9s, output quality noticeably shifts, and off-odors or coloration force rework – a performance gap that impacts profit margins and regulatory burden.

    Some specialty additive makers have told us that switching to high-purity Trans-2-Nonene allowed for direct extension into antioxidant intermediates for lubricants, saving not just raw material costs but also cutting cycle times. Oxidative stability under production conditions, paired with low peroxide formation, has real economic consequences. For polymer chemistry, especially in the modification of elastomer side chains, the trans configuration resists crosslinking that spoils final product uniformity and mechanical properties.

    Environmental, Safety, and Handling Considerations

    We keep a close watch on compliance and safety, not only through periodic reviews but also through hands-on review of how our product moves. Storage recommendations derive from solvent tank audits, rather than boilerplate instructions. Trans-2-Nonene’s flash point and volatility allow for above-ambient bulk storage without excessive VOC loss. This gives operators more flexibility during inventory management. Drum and tank stability means less concern about product aging, less sediment, and less cleaning.

    Over years, we have worked with logistics partners to address spill response and containment dynamics. Unlike more volatile C9 isomers, Trans-2-Nonene’s relatively moderate vapor pressure reduces both evaporation loss and exposure risk for transport teams. Its odor threshold also sits at a less objectionable level, which makes leak detection more manageable without overwhelming work areas or triggering community complaints. Staff in the shipping yards value not just the reduced personal protective equipment burden, but also the greater predictability in hazard mitigation planning.

    Direct Observations from Routine Production and Use

    We believe that true product value shows up in operations, not just brochures. Operators working at the tank farm, chemists in the pilot plant, and truck drivers at the loading bays have all echoed that Trans-2-Nonene moves and stores in a hassle-free fashion. We document handling temperatures and lean on real-world transfer pump operation, rather than desk-bound design assumptions. Because Trans-2-Nonene resists gum formation over time, transfer lines remain clear and in-spec product comes through right to the fill.

    Throughout long-term agreements, most return customers note that their process variability drops each time they specify Trans-2-Nonene from a single, tightly controlled source. They know that reproducible quality results from input purity and isomeric control. By routinely sharing batch analytics and storage recommendations, we’ve seen customers cut inventory loss and get more out of every tank they buy.

    Addressing Real-World Market Pressure

    Downward pressure on production costs shows up every budgeting cycle. Over time, process supervisors have told us that running plant feedstocks based entirely on lowest upfront cost leads to headaches down the road: unpredictable byproducts, shortened catalyst life, scrap, odor release, and customer complaints. By focusing on a single, well-specified feedstock like Trans-2-Nonene, our customers save both time and total cost of ownership. They call less often for technical troubleshooting, because predictable input leads to stable output.

    Our laboratory support pairs day-to-day plant experience with open lines to customer teams. When new performance requirements surface, or when environmental regulations tighten, rapid and informed product adjustments matter. The move towards lower VOC emission products in many regions leaves little patience for inconsistent product. Chemists need each incoming drum to perform like the last, and sudden process changes risk batch rejection. With our Trans-2-Nonene, quality control stems from live plant data, not from spot checks.

    Differences You Can See, Even in Lab Glassware

    Working directly with several universities on joint research, we repeatedly hear that Trans-2-Nonene enables cleaner kinetic profiles in organometallic and Friedel-Crafts reactions. Fast evaporation and volatility differences with alternative C9 fractions tend to cause swings in yields, even in small glass reactors. The trans isomer’s stability against acid-catalyzed dimerization means that expected product output does not drift over a week’s run. Our synthesis teams use these insights to refine upstream process conditions, dialing in pressure and catalyst systems to minimize odd carbon products.

    Quality inspection teams measuring residues note that trans isomers generally leave less gum and cause much lower tool fouling during glassware cleaning. This has unexpectedly reduced downtime in pilot trials and sped up parallel testing. These kinds of benefits show up in routine lab notebooks, not just sales presentations.

    Adaptability and Future Pathways with Trans-2-Nonene

    Industry rarely stands still, and neither do feedstock needs. Trans-2-Nonene’s performance opens up paths to finer nonyl-aromatic substitutions, helping both established plants and startups pursue new surfactant applications. Even as the markets shift from alkylphenol to greener alternatives, the underlying reliability and isomeric purity of Trans-2-Nonene enable next-generation research — especially in nonphenolic alkylation. Small process changes at our end support these new initiatives, as our teams feed back process learnings to support scalable transitions.

    We take part in technical workshops and keep in touch with process chemists on the ground who are shifting towards more sustainable production. Presentations often turn to the need for clean, stable hydrocarbon building blocks. The moves we have made over the years to upgrade refining and ensure traceability have paid off by letting innovators adapt quickly. Whether for a specialty antioxidant start-up or a detergent mainstay, the feedback keeps our product aligned with real design needs.

    Building Trust Through Transparency and Practical Support

    Our approach has always focused on listening to customer problems and responding with what the data, not just the computer, tells us. By showing clear batch analytics and honest tolerance ranges, we save long debates and let plant staff focus on production targets. Adopting Trans-2-Nonene consistently removes sources of variation that can ripple into final product rejection for color, odor, and shelf-life. Procurement teams report fewer complaints and simplified supplier audits, since the qualities they care about become documentable and repeatable.

    We don’t just look at numbers — we look at where the product ends up, how long it stays in intermediate storage, and which downstream issues keep cropping up. By working in plain language and inviting feedback after every major shipment, we have steadily improved both the isolation and the stabilization of each batch, learning directly from customer results. This process led us to enhance both in-plant analytics and documentation practices, which now underpin the traceability requirements for high-value chemical enterprisers. As more regulatory agencies demand robust supply chain records, these practices support both customer compliance and business continuity.

    Experience Shapes Reliable Solutions

    Trans-2-Nonene does more than just fill a line on a bill of materials. It reflects a style of manufacturing shaped by years spent solving real-world problems. Its use in alkylation, additive formation, and surfactant synthesis is driven not by habit, but by repeatable success on the shop floor and in the field. Customers who have cycled through different supply models, isomer mixes, and vendors find that consistency wins out over short-term savings once the full cost of lost batches, maintenance, and complaints is tallied.

    Direct feedback and years of observation inform each process adjustment, from tank farm operation to reactor analytics. We built our Trans-2-Nonene line to solve problems we saw happen during actual production runs, not theoretical simulations. These efforts yielded a product that earns steady business not just through technical sheets, but through predictable performance across a spectrum of changing industry needs.

    Looking Down the Value Chain: Why Trans-2-Nonene Matters

    From the moment bulk trucks leave our plant to the point final products reach shelves worldwide, the reliability of the base material echoes through the chain. We have learned that controlling isomer content and minimizing trace impurities in Trans-2-Nonene simplifies both in-line monitoring and final batch signoff. Real-world case studies show that chemists can dial in alkylation reactions without constant adaptation, slashing troubleshooting calls and reducing process interruptions.

    Those who have worked in the trenches of commercial synthetic chemistry know the value that clarity of raw material brings: fewer off days, less reactor downtime, less maintenance surprise, and a tighter lock on product specs. Trans-2-Nonene’s decades of use in our facility, either as a direct sales product or an internal intermediate, have demonstrated that sound upstream practice pays long-term dividends all the way out to the end-user.

    Listening to the Industry, Adapting with Experience

    As regulations and performance standards adjust year by year, Trans-2-Nonene’s robust history and controlled process make it an anchor point for both established and innovative chemical companies. By staying in conversation with maintenance teams, plant engineers, and R&D chemists, our work with this hydrocarbon remains current, practical, and grounded in real demand. The collective experience of operators, logistics staff, and purchasers ensures that quality, safety, and application fit drive each production cycle.

    Ongoing investment in process monitoring and transparency means every kilogram shipped carries the assurance earned by addressing—and solving—the details that define both current and future industrial needs. Suppliers who began as competitors have shifted to join in technical consortiums focused on cleaner, safer, and more consistent product streams. In this way, Trans-2-Nonene has quietly shaped better performance across multiple industries, one well-controlled batch at a time.