Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing sales7@sinochem-nanjing.com 3389378665@qq.com
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2-Decyne

    • Product Name 2-Decyne
    • Alias Un-decyne
    • Einecs 208-871-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    992305

    Cas Number 764-93-2
    Molecular Formula C10H18
    Molecular Weight 138.25 g/mol
    Iupac Name Dec-2-yne
    Boiling Point 173-175°C
    Melting Point -45°C
    Density 0.76 g/cm³
    Appearance Colorless liquid
    Solubility In Water Insoluble
    Refractive Index 1.425
    Flash Point 50°C
    Pubchem Cid 13582

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

    Packing & Storage
    Packing 2-Decyne is packaged in a 100 mL amber glass bottle with a secure cap and a label detailing hazard warnings and chemical information.
    Shipping 2-Decyne should be shipped in tightly sealed containers, away from sources of ignition and incompatible substances, such as strong oxidizers. It should be transported at ambient temperatures, clearly labeled as a flammable liquid. Ensure compliance with relevant local and international regulations, including appropriate UN labeling (UN 3295) for safe handling and transport.
    Storage 2-Decyne should be stored in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and incompatible materials such as strong oxidizers and acids. The container should be tightly closed and clearly labeled. Store in a flammable liquids cabinet. Protect from sunlight and moisture. Follow all relevant safety protocols and local regulations for chemical storage.
    Application of 2-Decyne

    Applications of 2-Decyne in Industrial Manufacturing

    2-Decyne is a specialty alkyne used in several industrial processes, where its unique triple-bond reactivity and carbon chain structure provide performance benefits. Below, we present real downstream uses for 2-Decyne, detailing compliance considerations, operational ratios, integration procedures, and finished product profiles for each industry.

    1. Synthesis of Plasticizers for Polymer Manufacturing

    In the polymer sector, producers use 2-Decyne as a building block for high-performance plasticizers. Its terminal alkyne group enables selective addition reactions and chain modifications, facilitating the production of non-phthalate plasticizers that meet current regulations. Manufacturers typically introduce 2-Decyne into esterification or hydrosilylation steps, where it increases plasticizer flexibility and durability in PVC and polyolefin systems.

    Industry compliance standards

    • REACH (EC) No 1907/2006
    • US EPA TSCA Inventory Compliance
    • EU Directive 2011/65/EU (RoHS) for electrical applications
    • ISO 9001:2015-certified production management

    Typical usage ratio

    • 2-8% w/w within plasticizer synthesis feedstock, adjusted based on polymer resin properties

    Downstream process integration

    • Added during esterification with dibasic acids and alcohols or into hydrosilylation pre-polymer chains, prior to blending into resin melt or extrusion line

    Final product types

    • Non-phthalate plasticizers for PVC cables and films
    • Flexible flooring compounds
    • Soft medical-grade tubing
    • Automotive polymer sealants

    2. Synthesis Intermediate for Agrochemical Actives

    Crop protection formulators use 2-Decyne as an intermediate for active ingredients in specific herbicide and insecticide products. Its reactive site allows for selective functionalization through hydrohalogenation, alcohol addition, or oxidative coupling steps. The material’s purity and controlled addition directly impact yield and by-product profiles during API manufacturing.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • Chinese GB/T 3796-2021 for pesticide intermediates
    • ISO 17025 laboratory QC certification
    • OHSAS 18001 for worker exposure handling

    Typical usage ratio

    • 2-5 mol% relative to final API target, adjusted for reactivity index in the specific synthetic route

    Downstream process integration

    • Introduced during chain extension or functional group introduction stages, often after initial aromatic ring construction, with precise thermal and addition rate control

    Final product types

    • Herbicide active intermediates (e.g., alkyne-derived inhibitors)
    • Alkyne-based insecticidal precursors
    • Specialty crop desiccant actives
    • Seed treatment agents

    3. Pharmaceutical Research and Development – API Synthesis

    Pharma API manufacturers employ 2-Decyne as a carbon scaffold or alkyne synthon in the synthesis of targeted molecules. It commonly enters copper-catalyzed coupling or cyclization reactions, facilitating the formation of macro-cyclic drugs or bioactive intermediates where triple-bond reactivity and spatial control are critical for final bioactivity. We provide high-purity grades and full traceability for this segment.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredient Manufacturing
    • USP/NF Monographs (where applicable, for final APIs)
    • EU EudraLex Volume 4 (Good Manufacturing Practice)
    • ISO 14644-1 cleanroom production for high-purity needs

    Typical usage ratio

    • 0.5–3 molar equivalents in synthetic steps, based on the molecular complexity and selective coupling requirements

    Downstream process integration

    • Fed into batch reactors for palladium- or copper-catalyzed cross-coupling or cycloaddition reactions, typically under controlled inert atmospheres and monitored by in-line chromatographic QC

    Final product types

    • Cancer therapy intermediates
    • Antiviral macrocycle precursors
    • Alkyne-containing drug discovery candidates
    • Chiral starting materials for biosynthesis

    4. Specialty Coatings and Surface Modification Additives

    Advanced coatings manufacturers incorporate 2-Decyne for producing surface-active compounds and crosslinking agents. The molecule’s triple-bonded structure supports click chemistry methods and advanced oxidative polymerizations, enabling creation of hydrophobic, anti-fouling, or abrasion-resistant topcoats. Integration occurs at post-polymerization or reactive additive blending steps, with strict control over reaction temperature and catalyst systems.

    Industry compliance standards

    • ISO 12944 for coating system performance (industrial and marine)
    • US FDA 21 CFR 175.300 (indirect food contact coatings, if used accordingly)
    • ASTM D5402 solvent resistance testing methods
    • ISO 14001 Environmental Management in coating plants

    Typical usage ratio

    • 1–6% by mass within functional monomer blends or reactive additive packages, altered based on target coating functionality and substrate type

    Downstream process integration

    • Blended into acrylic, silicone, or polyurethane matrix systems during final compounding or as a terminal additive prior to cure or spray application

    Final product types

    • Anti-fouling marine paints
    • Corrosion-resistant industrial topcoats
    • Functionalized powder coatings for machinery
    • Hydrophobic architectural paint systems

    5. Advanced Lubricants and Additive Packages

    Lubricant formulators employ 2-Decyne as a friction modifier, using its unsaturated functionality for selective oligomerization or to provide reactive sites for additive chemistry. Its controlled reactivity contributes to improved anti-wear, anti-friction, and oxidative stability features in synthetic oil and grease blends for heavy machinery and automotive applications.

    Industry compliance standards

    • ACEA European Oil Sequences standards
    • API SN Plus, SP base oil compatibility requirements
    • DIN 51517 (lubricants for industrial gear units)
    • REACH registration for lubricant additives in EU

    Typical usage ratio

    • 0.2–1.2% by weight in finished lubricants, with rate optimization dependent on base oil chemistry and target performance points

    Downstream process integration

    • Added during final blending with other performance additives or reacted in-situ for oligomeric additive package production, followed by filtration and QC verification

    Final product types

    • Synthetic gear and transmission oils
    • High-performance greases
    • Compressor and hydraulic fluids
    • Friction-modified engine oils
    Free Quote

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

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    Certification & Compliance
    More Introduction

    2-Decyne: An Essential Building Block in Fine Chemical Synthesis

    What Is 2-Decyne?

    Producing 2-Decyne is a balancing act between chemistry and practical demands. In our manufacturing facility, the process draws on years of hands-on adjustments and tight control over each condition. 2-Decyne, with the formula C10H18, holds a distinct place among alkynes due to its internal triple bond at the second carbon. The distinction between terminal and internal alkynes changes reactivity in a lab setting and at the industrial scale. Internal alkynes like 2-Decyne often circumvent undesired side reactions found in terminal counterparts, which improves yield and consistency in downstream chemistry.

    Consistency doesn’t come easily in large-scale synthesis. Over time, learning from reactions that veer sideways, we refined our purification systems and hydrogenation controls. Yield matters, but so does purity. Surprising impurities in alkyne production threaten catalysts and complicated processes. We test every batch specifically for residual hydration byproducts and terminal alkyne contamination. This hands-on scrutiny isn’t a matter of reputation alone; downstream users report fewer issues with catalyst fouling and side reactions compared to product from looser production streams.

    Specifications Drawn From Applications

    The right product results from listening to what organic chemists and process engineers need from 2-Decyne. Our regular customers in the pharmaceutical sector often describe the headaches caused by trace metals or isomeric compounds carried over from the synthesis. To accommodate these concerns, we use distillation and monitoring protocols suited to orders ranging from drums to bulk tankers. We don’t dilute or blend batches post-production, as that tends to introduce unnecessary complications. Every sample goes through GC and NMR tests to verify content, with a focus on triple-bond integrity and absence of terminal alkynes, which complicate downstream steps for our end users.

    Different projects demand slightly adjusted carbon chain distributions or specific levels of residual catalyst, so a single specification sheet cannot cover the full story behind our 2-Decyne. Some customers working in fragrance intermediates want less than 50 ppm of aromatic impurities for sensory consistency. Synthetic lubricants and specialty polymers benefit from slightly modified purity to meet stability or handling characteristics. We communicate honestly about what’s achievable batch to batch, especially for time-sensitive orders where no one wins from an unexpected result on delivery.

    Direct Experience: Navigating Safety and Handling

    Handling 2-Decyne in a production hall feels different from working with lighter alkynes or lab-scale amounts. Vapor pressure stays low, but the product’s chemical reactivity calls for steady vigilance. Alkynes require special piping to prevent dangerous polymerization if exposed to strong acids or metal dusts. Our staff wears gloves not to follow a checklist, but from real memories of unpredictable exotherms during past workups. Stories move through the plant among newer and older team members: use the right seals, never improvise storage, respect its potency not just on paper but in every interaction.

    One point often lost in sales brochures is the logistics of decyne transport. As the original producers, we see how temperature, drum material, and even minor contamination shift properties by the time a shipment arrives. That’s led us to shift from basic steel drums to specialty linings that better tolerate the compound’s chemical stubbornness. Experience on the ground has shown this reduces risk of tar formation and ensures the product’s stability on longer journeys, minimizing “off spec” surprises for end users.

    Use Cases Rooted in Industry

    2-Decyne carves its niche by enabling transformations that saturate, add functionality, or build new carbon backbone structures. As an internal alkyne, it attracts producers of specialty fine chemicals for several reasons. Catalytic hydrogenation gives selective access to cis- or trans-decenes, crucial in certain custom olefins and fragrance molecules. Pharmaceutical synthesis benefits from its predictable reactivity with organometallic intermediates and cross-coupling systems. Producers of advanced polymers draw on the triple bond as a branching point in longer, more complex chains.

    We’ve watched fine fragrance companies rely on our 2-Decyne for specific aromatic compounds where other alkynes lead to too much branching or unwanted functional groups. In polymer modification, customers leverage 2-Decyne for start-point reactions because it reacts less aggressively than shorter-chain alkynes, lending better control over the resulting material’s properties.

    Synthetic lubricants based on mid-length unsaturated hydrocarbons harness 2-Decyne as a modulator. Its position within the molecule ensures that it maintains fluidity and thermal stability beyond what lighter alkynes or cycloalkenes deliver, especially when customers push their products toward extreme cold or heat performance.

    How 2-Decyne Compares to Other Alkynes

    Too often, new users come expecting close parallels between terminal alkynes like 1-decyne and internal variants like 2-Decyne. Lessons from our reactors speak differently. Terminal alkynes hold onto acidic hydrogens, which can trigger unwanted addition or polymerization, or react unpredictably in certain coupling reactions. That unpredictability forces operators to double back, rerun reactions, or spend hours troubleshooting toxins and off-products.

    2-Decyne, by contrast, exhibits far more stability, both chemically and logistically. Storage and shipment to places with fluctuating temperatures become much less daunting, reducing the demands on inventory teams and lowering the risk of surprises at the customer’s tank farm. The triple bond’s position blocks many side reactions, especially in processes that flow through precious metal catalysts. End users across agrochemical and pharma lines tell us their catalyst beds last longer and product isolation steps simplify versus experience with the terminal alkyne versions.

    Internal alkynes, given their molecular configuration, avoid much of the metallic-tasting “bite” in final flavors and fragrances observed when terminal variants get used as starting materials. Chemists in food additive or aroma production consistently note improved yield and purity—not a matter of luck, but the outcome of triple bond placement within the 2-Decyne molecule. Even small customers, running kilogram or sub-kilogram lots, find it easier to fine-tune reaction times and isolate products without wasting solvents or losing yield to stubborn byproducts.

    The Role of Experience in Sourcing

    Industry quietly puts a premium on reliability. As actual manufacturers, our hands shape every decision that moves 2-Decyne from raw precursor through each step until a tanker rolls out the door. We've tweaked every control—pressure, temperature, catalyst selection—to suit the quirks of the real molecule versus its theoretical diagram. Each step builds on setbacks as much as successes, teaching practical lessons never found in a simple technical data sheet.

    Alongside reliability, traceability holds equal weight. Any company can declare “pure” or “high-quality” on paperwork, but those words mean little if the origin of every atom or impurity can’t be followed backwards across batches, or if a minor process change causes unexpected headaches months later. We maintain data from each run, pairing technical history with practical feedback from end users, whether a drum ships to a corporate pharma giant or a small laboratory. The intent is simple: if something arrives off spec, we trace, adjust, and report transparently—no hidden corners.

    Many end users mention difficulty tracing upstream issues with distributors. As a direct producer, we field those late-night calls from R&D managers and process chemists when a reaction goes awry, walking through every detail until everyone finds the root cause. Years of solving these problems sharpened our standards and influenced every SOP now embedded in how we produce and test 2-Decyne.

    Meeting the Demands of Regulation and Sustainability

    Pressure keeps rising across chemical manufacturing to ensure not only product performance but adherence to strict regulations. While larger integrated plants can avoid discussing this openly, in our scale of operations the environmental and safety regulations shape each equipment decision, waste stream, and emissions tracking system.

    Waste minimization in 2-Decyne production doesn’t come from generic best practices alone, but from persistent improvements learned through routine operation and feedback. Unwanted byproducts, if allowed to build up in equipment, trigger shutdowns or, worse, cause lost material to end up in effluent. We engineered several distillation and solvent recovery upgrades to ensure the bulk of our streams recycle or break down with minimal environmental load. That makes plant neighbors—and our workers—more comfortable, while reducing surprise regulatory issues after routine audits.

    Sustainability factors draw increasing attention, especially as downstream users face customer or contractual demands for chain-of-custody proof and green chemistry status. Today, we source key precursors in bulk from suppliers known for responsible chemical management. Every run produces a batch record that accompanies the shipment, offering evidence of origin, purity, and adherence to modern environmental expectations. It’s more than a sales point—it’s how we keep customers in good standing through their own regulatory reviews.

    Challenges Facing the Industry

    Rising input prices, changing safety standards, and evolving downstream requirements keep the landscape of synthetic alkynes in perpetual motion. Operating as a manufacturer, these pressures arrive not as headlines, but as daily puzzles. Stubborn fluctuations in commodity acetylene, catalyst pricing, or energy bills can swing the economics of a batch given the tight tolerances needed for premium-grade product. Regular contact with end users has taught us to flag issues early, find alternate feeds, or adjust schedules flexibly to avoid bottlenecks.

    We watch shifting safety standards with both skepticism and appreciation. Improvements generally extend protective practices one step further, but sometimes add challenging documentation or special permits that seem designed for larger firms. By building robust safety procedures and flexible documentation, we keep above-board and agile. Regular investment in safety systems—modern monitors, better training, more frequent equipment checks—pays back by keeping operations smooth and downstream users satisfied with product confidence.

    End uses change as well. The surge in specialty polymers and bio-based product lines means that yesterday’s “good enough” purity or supply flexibility may fall short. Our team participates in fine chemical consortia and end-user roundtables—not for marketing, but to listen and anticipate what tomorrow’s processes will demand from each new batch of 2-Decyne.

    Customer Priorities: Working With the Manufacturer

    Customers sourcing 2-Decyne need more than a line on a spreadsheet. Our approach favors dialogue, sharing technical knowledge and troubleshooting effort. Regular requests for tailored documentation, advance purity screening, or adjusted logistics scheduling form the norm, not the exception. Our technical staff spends time understanding new downstream innovations that may pose novel purity or reactivity demands. Some clients introduce feedback loops—problems shared via detailed reports or even site visits—leading to changes in how we tune distillation profiles or decay unwanted isomers during synthesis.

    Repeated experience has shown that unexpected downtime, quality failures, or supply delays cost labs and fine chemical plants far more than a slight premium paid for reliable product from an experienced source. Our workshop runs on those lessons, incorporating real-world stories and the direct needs of users into every stage of production, packaging, and transport.

    Continuous Improvement and Future Prospects

    Taking stock of all lessons gathered through years in 2-Decyne production, the ongoing drive remains to blend human attention, technical mastery, and environmental responsibility. Our baseline grows with every new customer challenge—whether a request for greater analytical transparency, faster shipping, or custom synthesis routes driven by emerging pharmaceutical needs.

    The next generation of chemical end users asks sharper questions and expects more agility in their supply chain: lower impurities, faster turnarounds, more robust safety credentials, and concrete traceability for every kilogram. We've embedded these goals in our plant workflows and staff training from the ground up. Regular site audits, cooperation with downstream innovators, and incremental technical advances build a future-proof platform for anyone counting on reliable, high-quality 2-Decyne.

    Summary: More Than a Commodity

    2-Decyne serves as a foundation for accomplishment in fine chemicals, pharma intermediates, specialty lubricants, and polymer modifiers. Its quality and suitability stem from hands-on effort at each point in production, ongoing dialogue with users, and persistent tuning to real-world obstacles found only in experience. Each tank or drum reflects the added value of focused expertise, a grounded approach to problems, and genuine accountability—qualities too often lost in anonymous, distributor-heavy markets.