1-Octene

    • Product Name: 1-Octene
    • Alias: n-Octene
    • Einecs: 211-890-8
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    431094

    Chemical Name 1-Octene
    Cas Number 111-66-0
    Molecular Formula C8H16
    Molar Mass 112.21 g/mol
    Iupac Name Oct-1-ene
    Appearance Colorless liquid
    Density 0.715 g/cm³ at 20°C
    Boiling Point 121°C
    Melting Point -101°C
    Flash Point 13°C (closed cup)
    Solubility In Water Insoluble
    Vapor Pressure 29.3 mmHg at 25°C
    Refractive Index 1.414 at 20°C
    Odor Mild, olefinic
    Pubchem Cid 8900

    As an accredited 1-Octene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1-Octene is packaged in a 500 mL amber glass bottle with a secure cap, labeled with hazard warnings and product information.
    Shipping **1-Octene** should be shipped in tightly sealed, properly labeled containers, following local, national, and international regulations. It is a flammable liquid and must be transported away from heat, sparks, and open flames. Ensure ventilation, use suitable packaging materials, and include safety documentation per hazardous material transport guidelines.
    Storage 1-Octene should be stored in a cool, dry, and well-ventilated area away from heat sources, open flames, and direct sunlight. The chemical should be kept in tightly sealed containers made of compatible materials. Avoid exposure to strong oxidizing agents. Proper grounding and bonding are recommended to prevent static discharge, and all storage containers must be clearly labeled.
    Application of 1-Octene

    Applications of 1-Octene in Industrial Manufacturing

    1-Octene is a crucial linear alpha-olefin widely used in chemical industries for its specific reactivity and chain structure. As a primary manufacturer, we supply 1-Octene to global partners operating advanced downstream processes. The following sections showcase real application segments, regulatory compliance frameworks, usage ratios, process placement, and resulting end products.

    1. Polyethylene Copolymerization for LLDPE and Specialty PE Grades

    Polyethylene producers use 1-Octene as a comonomer to introduce short-chain branching in linear low-density polyethylene (LLDPE) and specialty polyethylene grades. This enhances key mechanical properties such as impact resistance, clarity, and flexibility in films and molded goods. Copolymerization occurs in high-pressure or gas-phase reactors, where the precise octene feed is crucial to polymer architecture control and performance in packaging, stretch wrap, agricultural films, and specialty geomembranes.

    Industry compliance standards

    • FDA 21 CFR 177.1520 (olefin polymers for food contact)
    • EU Plastics Regulation No 10/2011 for polymeric materials
    • ISO 1133 for melt flow rate (MFR) standards
    • ASTM D635 for flammability in finished PE goods

    Typical usage ratio

    • 1-Octene comonomer feed ratio typically ranges from 3% to 12% by weight, adjusted according to film grade, desired mechanical properties, and catalyst/processing type.

    Downstream process integration

    • Metered 1-Octene addition occurs during the gas-phase or solution polymerization step, post-catalyst activation. Operators monitor feed ratios in real time to ensure targeted density and short-chain branching frequency in the resin blend.

    Final product types

    • High-clarity LLDPE blown and cast films for food packaging
    • Stretch and shrink wrap films
    • Agricultural mulch and greenhouse films
    • Geomembranes and tunnel liners

    2. Production of Surfactant Alcohols via Oligomerization and Hydroformylation

    1-Octene is converted into oxo-alcohols and longer-chain fatty alcohols through oligomerization and subsequent hydroformylation. Major surfactant manufacturers use these alcohols to synthesize ethoxylates and sulfates for home care, I&I cleaning, and textile processing. Production lines require on-spec alpha-olefin to maximize alcohol yield and meet performance benchmarks in downstream surfactant blends.

    Industry compliance standards

    • REACH Registration for surfactant intermediates
    • OECD Test Guidelines for aquatic toxicity of detergents
    • U.S. TSCA compliance for high production volume chemicals
    • ISO 9001 certified batch traceability

    Typical usage ratio

    • 1-Octene input typically ranges from 5% to 10% of total alkene feed in C8–C10 fatty alcohol production, depending on chain length optimization.

    Downstream process integration

    • 1-Octene enters the oligomerization reactor as a controlled feedstock before oxo-synthesis. Downstream hydroformylation and hydrogenation convert intermediate aldehydes into linear alcohols, which are further processed into detergent-grade ethoxylates or sulfates.

    Final product types

    • Alcohol ethoxylates for detergent formulations
    • Fatty alcohol sulfates for hand dish wash liquids
    • Textile wetting agents
    • Heavy-duty cleaning agents

    3. Synthesis of Plasticizers for Flexible PVC Compounds

    Flexible PVC producers incorporate 1-Octene-derived phthalate and non-phthalate plasticizers to meet both technical and regulatory requirements. Well-controlled alkyl chain structure influences plasticizer performance in cable insulation, flooring, and medical tubing. Careful monitoring of 1-Octene purity and side reactions ensures compliance with regional health and safety mandates for materials in direct and indirect human contact applications.

    Industry compliance standards

    • EU REACH Annex XVII restrictions (phthalate limits in toys and childcare articles)
    • EN 71-3:2019 Safety of Toys (Migration of certain elements)
    • USP 661 Plastic Packaging Materials guidance
    • Chinese GB 15593-2008 for plasticizer content in food-contact PVC

    Typical usage ratio

    • Plasticizer addition formulated at 25%—45% w/w relative to the PVC base resin; the exact ratio is optimized based on end-use flexibility and migration requirements.

    Downstream process integration

    • 1-Octene-derived intermediates are esterified to form the plasticizer, which is blended directly into PVC compounding lines before extrusion, calendaring, or injection molding steps.

    Final product types

    • Insulated wire and cable jackets
    • Flexible flooring materials
    • Blood bags and medical tubing
    • Toys and childcare articles

    4. Lube Base Oil Manufacturing by Oligomerization Route

    Synthetic lubricant formulators select 1-Octene as the key monomer for producing polyalphaolefin (PAO) base stocks. The precise linearity and low branching of the resulting PAOs ensure high viscosity indices, low volatility, and excellent oxidative stability demanded in automotive, industrial, and aviation lubricants. The manufacturing chain depends on the consistent quality and reactivity of 1-Octene in controlled oligomerization reactors.

    Industry compliance standards

    • API Group IV and V lubricating base oil classification
    • ACEA E9/E7 and ILSAC GF-6 performance benchmarks
    • ISO 9001 certified production sites for lubricant oils
    • ASTM D445 and D2270 viscosity index testing of finished PAO base stocks

    Typical usage ratio

    • 1-Octene monomer constitutes 100% of feed for C8-derived PAO or is co-fed at 20%—60% with C10–C12 for tailored viscosity grades.

    Downstream process integration

    • Enters the oligomerization reactor as neat feed. Catalytic oligomerization occurs, followed by hydrogenation to produce branched PAO molecules with desired molecular weight distribution, which are then fractionated and blended.

    Final product types

    • High-performance engine oils
    • Industrial gear and hydraulic oils
    • Compressor and turbine fluids
    • Aviation lubricants

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    Certification & Compliance
    More Introduction

    1-Octene: The Building Block for a Modern Chemical Industry

    Understanding 1-Octene from a Manufacturer’s Perspective

    In a production hall where reactors hum day and night, the real work of refining 1-octene doesn’t happen on a spreadsheet or an order form. It comes down to precision in distillation, care in handling, and a hard-earned understanding of what customers need from their alpha olefins. Over years of manufacturing, we’ve learned that product integrity is never accidental: raw material control, process adjustment, and final purification all decide both the final grade and, ultimately, its usefulness in polymer and specialty applications.

    1-Octene stands out among straight chain alpha olefins for the balance it brings to polymerization feedstocks. Our built-up capacity stretches from decades of engineering, as we scaled up from discreet glass pilot vessels to vessels running in the tens of tons. We keep the process reliable and stable, whether a customer asks for a single tanker or a regular stream. By staying ahead with current generation technology and well-trained staff, our olefins facility delivers a hydrocarbon that end-users can depend on.

    Product Characteristics and Model Variants

    We manufacture 1-octene to meet specific thresholds for typical end uses. Our standard cut reaches a purity in excess of 99%, supported by gas chromatography on every batch. Moisture and peroxide levels are tracked throughout production cycles, since even a trace impurity can ruin catalyst beds in downstream polymerization or trigger unwanted reactions when formulating complex copolymers. Chemical engineers and batch operators monitor process variables such as boiling point, density, and UV absorbance as part of our active quality assurance program. Routine tests, including color by APHA and sulfur content, are also enforced throughout each production day.

    Most buyers come for our primary model, best suited for polyethylene copolymer production—especially LLDPE, where n-1-octene comonomer modifies the polymer’s mechanical strength and film processability. Here, customers measure us on the basis of repeatability, because their process windows are tight and failure costs are high. We’ve also responded to niche requests, such as ultra-low sulfur or high-purity spec, by adjusting reactor residence times, optimizing distillation towers, or swapping in fresh catalyst cycles at extra cost. We maintain several tank lines for different cut grades, so we can deliver on commitments for diverse downstream sectors—be it high-quality surfactant intermediates or fine chemical synthesis.

    From Plant to Customer: Delivery with Consistency

    Transporting 1-octene isn’t just a matter of getting drums from point A to point B. High purity alpha olefins can be exposed to oxygen and moisture, especially if packaging is not airtight. Custom packaging lines, inerted storage, and checked seals limit the risk of oxidation and off-flavoring—a real concern for industries that can’t tolerate trace contaminants. Since 1-octene’s boiling range makes it sensitive to heat, temperature monitoring stays in place throughout transit. Thanks to long-term logistics partnerships and a dedicated on-site QC team, undesirable deviations or delays stay rare.

    Some customers require rail, others take bulk road tankers or ISO containers. Our load-out team documents each hand-off, confirms lot numbers, and ensures compatibility with all transfer fittings and hoses. These small details—beyond the spec sheet—make the difference when a chemical plant is operating around-the-clock.

    Key Applications Driven by Real-World Needs

    1-Octene plays a central role in industries that build the essentials for daily life, even if most consumers never know its name. Low-density and linear low-density polyethylene resins rely on octene comonomer to achieve a mixture of toughness and flexibility. This, in turn, allows everything from food packaging films to utility pipes to pass tight durability and permeability standards. Our partners in polyolefins production depend on our consistency, because a single off-spec batch can throw thousands of tons off-grade.

    The surfactants market also drives demand for high purity 1-octene. Producers synthesize long-chain fatty alcohols from alpha olefins, leading directly into C8 alcohols or higher value ethoxylates. Each time, process engineers call for stable, low-peroxide feedstocks. Even minor deviations show up quickly in downstream analytics—something we see firsthand from the technical support queries that roll in monthly. Because of these strict downstream requirements, we hold our in-plant thresholds higher than the minimum industry guideline.

    On the specialty side, 1-octene finds use as an intermediate for plasticizers, synthetic lubricants, and functional copolymers. It serves as a chain shortener in high-grade chemicals and as a molecular building block for tailored specialty compounds. The sheer variety of applications means our facility can’t rest on its laurels: margin for error narrows as specialty grades become more demanding. We keep our people cross-trained to flex between high-volume and small-batch specialty runs, giving peace of mind to both global majors and emerging startups in advanced polymers.

    How 1-Octene Stands Apart from Other Alpha Olefins

    Alpha olefins run in a series, starting from butene and hexene up through decene, dodecene, and beyond. Each brings a unique combination of volatilities, reactivities, and end-use advantages. From our manufacturing post, we see octene’s unique chain length bringing a distinct influence in copolymer microstructure. Compared to butene, 1-octene offers longer branch chains—injecting more flexibility and lower density to PE materials without as much loss of tensile strength. Hexene’s even-numbered carbon chain holds the middle ground, but octene serves polymer producers who want a stronger impact on ‘down-chain’ properties.

    We manufacture hexene and decene alongside octene, so we compare product behavior weekly through in-plant trials. Octene’s balance sits between low-volatility, process-safe handling, and potent co-monomer effect for tuning material properties. Decene’s heavier fraction makes it ideal for high-performance lubricants, while butene is chosen for low-cost mass applications. Octene gets selected where operators need improved tear properties in film extrusion or better ESCR (environmental stress crack resistance) in blow-molded goods. Polymer scientists confirm what we see on the plant floor: octene opens process windows that neither butene nor hexene quite match.

    Production scale also plays a part in how 1-octene is delivered and used compared to other alpha olefins. At industrial volumes, handling characteristics such as flash point and evaporation rate influence how we store, move, and process each product grade. In octene’s case, intermediate volatility makes it manageable in large-scale tanks without heavy-duty chilling, keeping downstream operations both safe and cost-effective. Lower boiling alpha olefins place more risk on loss through evaporation, while higher ones can require heat tracing to keep product viscosity in range for pump transfer.

    Sustainability and Operational Challenges

    Efficient operation of an alpha olefins plant starts with sustainable feedstocks. Less than a generation ago, most supply chains depended on fossil sources without much thought to emissions or resource stewardship. Now, we’re deep into energy audits, heat recovery schemes, and flare reduction projects. Octene’s molecular profile fits well for catalytic processes that minimize by-products, but lost yields hurt performance. We’ve shored up material balances and improved reactor performance, so our losses rank near the low end of the industry average.

    Water usage runs lower in octene processing compared to shorter-chain products that demand heavier quenching cycles. Still, plant-wide re-use and closed-loop cooling systems have been retrofitted in all new capital expansions. Old timers on our shift remember dumping condenser water down the line without a thought—now, every gallon gets counted and reused where feasible. Air quality gets similar attention. All vent streams pass through scrubbers; closed sampling points cover areas most likely to see emissions. Facility tours with community stakeholders are now regular parts of our calendar, where we show off what good manufacturing looks like.

    Waste streams tie back to the main columns and reactors. We separate offcuts and recycle fractions wherever possible—old habits from the days when margins were squeezed, but now reinforced by tighter regulations. Resin fines and catalyst residues, once tossed or incinerated, now feed solvent recovery lines or move to qualified third-party processors. Our operators track these flows by shift, and track gains or losses through production meetings with management looking at real numbers from the plant floor.

    Quality Control and Plant Reliability

    Delivering high purity 1-octene month after month doesn’t happen by luck. Statistical process control forms the backbone of our operation. Monitors on distillation columns, chromatographs in the lab, and multi-point temperature probes all loop back into a distributed control system. If a batch falls out of spec on color, sulfur, or GC area count, operators investigate and isolate problem zones before moving product onward. Each failure gets logged and root causes dissected: valve leaks, distillation cut drift, or an above-average run on a catalyst bed.

    We share plant performance data openly with raw material vendors and logistics partners. This transparency has reduced handover errors, improved maintenance shut timing, and helped keep our asset utilization rates higher than benchmark. Customers see those results through low returns, fewer complaints, and improved confidence in our material reliability.

    Our technical service team is composed of plant veterans as well as chemical engineers who’ve worked upstream and downstream of 1-octene production. Their insight keeps customer processes running. Most feedback centers on issues like co-monomer purity, batch-to-batch color drift, or analysis of trace contaminants. Each time we get a customer report, a team traces the material’s journey back through sample archives, ensuring corrective steps are in place before the next run releases.

    Research, Innovation, and End-User Value

    Alpha olefin manufacturing continues to evolve, and keeping up with industry pace means constant investment in R&D. We run small pilot plants alongside main production to test new catalysts or alternate feed routes. One recent project targets improved selectivity to 1-octene versus internal octenes, aiming for better material throughput without extra waste. Research chemists on our team track changes in polymer industry requirements, from regulatory calls about impurities to processing trends for newer film extrusion techniques.

    Our partnerships with resin makers open windows into market trends. Feedback on new LLDPE grades informs what tweaks are worth pursuing—sometimes it’s a matter of narrowing the boiling range, other times it comes down to finding a new fractionation step that preserves critical anti-oxidant properties. Regular joint trials allow us to see first-hand how even minor changes in alpha olefin quality can impact conversion rates, melt flow indices, and film clarity for converters.

    We involve end-user feedback loops into design, rather than simply pushing product to market. As downstream partners move towards circular economy models—targeting higher recycled content or alternative feedstocks—we actively audit our own input mixes. A few pilot-scale projects now run on partially renewable naphtha. Once those results show stable yields, we’ll scale up further and offer “bio-attributed” 1-octene to meet the needs of customers focused on carbon reduction targets.

    Regulatory, Safety, and Operator Training

    Handling 1-octene manufacturing and storage safely requires operator discipline and strong procedures. Every shift starts with safety briefings and rounds. Raw material and final product tanks are grounded, vapor management systems checked, and all process areas kept clear for walkthroughs. Material Safety Data Sheets are filed but, more importantly, shared and reviewed line by line across teams—especially for new hires or after process changes.

    Process safety incidents, even minor ones, trigger immediate investigations. We’ve learned through both industry news and our own experience that performing root-cause reviews, even on non-reportable incidents, keeps larger issues from ever happening. Our approach to near-miss tracking has improved culture more than any outside consultation; operators solve issues on the floor before they reach criticality.

    On the regulatory front, changing benchmarks for emissions, product purity, and packaging drive us to stay current. The switch to ever-tighter contaminant thresholds did not come cheap, but it has cut our complaint rates and opened up export options to customers with stricter regulatory frameworks. Informed compliance supports easier certification, shorter audit times, and more predictable turnarounds on customer approval cycles.

    Customer Support and Value Beyond the Molecule

    Many buyers approach 1-octene as a commodity, but real relationships run deeper. Technical support matters: when new product development needs a tighter spec, or when a startup copolymer plant wants to trial an alternative comonomer blend, having hands-on access to our knowledge base gives them a leg up. Our technical team stays available for process troubleshooting—whether it’s finding a root cause for reactor fouling or supporting process optimization in real time.

    For regular buyers, traceability and document retention systems add security, while repeat deliveries build trust over time. Logistic flexibility—be it in packaging, batch size, or delivery schedules—reflects years of experience that simply moving molecules from one drum to another never matches. We’ve learned through years of operator feedback and customer collaboration that robust documentation and direct communication are as important as any single spec or certificate of analysis.

    Industry Insights: Opportunities and Outlook

    Demand for 1-octene, especially high-purity and specialty grades, is set to grow over the next decade. Packaging, consumer durables, and performance chemicals rely on alpha olefins as flexible building blocks. This growth comes with challenges: keeping production scalable and sustainable, adjusting to changing environmental requirements, and providing the traceability required by modern buyers. By staying close to both technology and customer needs, we continue finding new ways to serve established and emerging industries. Our experience teaches us that success always traces back to a steadfast process, open communication, and a drive to improve in ways measurable on the plant floor.

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