Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
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1-Octene

    • Product Name 1-Octene
    • Alias n-Octene
    • Einecs 203-893-7
    • 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

    229262

    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 121-123°C
    Melting Point -101°C
    Flash Point 15°C (closed cup)
    Refractive Index 1.410 at 20°C
    Vapor Pressure 13.3 mmHg at 37.8°C

    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 tamper-evident cap and safety labeling for chemical handling.
    Shipping 1-Octene is typically shipped in steel drums, ISO tanks, or bulk tank trucks under temperature-controlled conditions to prevent polymerization and minimize vapor formation. It must be labeled as a flammable liquid (UN 1262) and stored away from heat sources, oxidizers, and ignition sources, in accordance with applicable transportation regulations.
    Storage 1-Octene should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. The storage container must be tightly sealed, made of suitable materials (e.g., stainless steel or HDPE), and clearly labeled. Grounding and bonding may be required to prevent static discharge, as 1-Octene is flammable.
    Application of 1-Octene

    Applications of 1-Octene in Industrial Manufacturing

    Our 1-Octene serves as a high-purity alpha-olefin key to several advanced manufacturing sectors, supporting core resin polymerization, specialty chemical synthesis, and lubricant base stock production. Each application below reflects established downstream processes, defined formulation ratios, and compliance with international standards for quality and safety.

    1. Linear Low Density Polyethylene (LLDPE) Co-Monomer

    1-Octene plays a critical role as a co-monomer in the polymerization of linear low density polyethylene, predominantly used in film applications. Its incorporation modulates molecular branching, improving film puncture resistance, sealing performance, and clarity. Major polymer producers select 1-Octene to engineer films for stretch wrap, heavy-duty sacks, and food packaging, relying on precisely controlled integration at the reactor phase to maintain grade consistency and process stability over high-output cycles.

    Industry compliance standards

    • FDA 21 CFR Part 177.1520 (Olefins polymers for food contact)
    • EU Regulation (EU) No 10/2011 (Plastic materials and articles for food contact)
    • ISO 1872-1 (Polyethylene resins—designation system)
    • ASTM D3350 (Standard Specification for Polyethylene Plastics Pipe and Fittings Materials)

    Typical usage ratio

    • Co-monomer loading: 6–15% wt depending on density and performance targets; proportionally adjusted by polymer grades and target film thickness

    Downstream process integration

    • Metered addition during the solution or gas phase polymerization
    • Careful monitoring via in-line GC to optimize branching and polymer chain length
    • Blends with ethylene in automated feed systems

    Final product types

    • Food packaging films (cling wrap, freezer bags)
    • Industrial stretch wrap
    • Heavy-duty carrier bags
    • Agricultural silage films

    2. Polyalphaolefin (PAO) Synthetic Lubricant Base Stocks

    In high-performance synthetic lubricants, 1-Octene serves as a feedstock for the oligomerization process that produces PAO base oils. Its molecular structure enables control over viscosity, pour point, and oxidative stability, essential for formulating engine and industrial gear lubes for demanding environments. Lubricant manufacturers rely on consistent alpha-olefin purity to maintain batch specifications and achieve low volatility crucial for automotive OEM approvals.

    Industry compliance standards

    • API Base Oil Groups III/IV specification
    • ACEA European Engine Lubricant Standards
    • OEM approvals: Mercedes-Benz MB 229.5, VW 502 00, BMW Longlife
    • ISO 9001:2015 (Quality Management System for lubricant production)

    Typical usage ratio

    • PAO feed: 1-Octene to ethylene ratio 1:3–1:6 molar (adjusted by target viscosity grade, commonly PAO 4 or PAO 6)

    Downstream process integration

    • Feedstock for Ziegler or metallocene-catalyzed oligomerization
    • Direct downstream hydrogenation for low-viscosity product lines
    • Vacuum stripping to achieve required volatility profile

    Final product types

    • Passenger car engine oils (SAE 0W-20, 5W-30)
    • Industrial gear oils
    • Compressor oils
    • Synthetic greases and turbine oils

    3. Specialty Surfactant Production (Alcohol Ethoxylates)

    The synthesis of high-purity linear alcohols from 1-Octene forms the backbone of nonionic surfactant manufacture for use in detergents, personal care, and institutional cleaners. The controlled hydroformylation and subsequent hydrogenation of this alpha-olefin deliver C8 alcohols with tight chain length distribution. Downstream ethoxylation produces surfactant molecules with desired HLB values for specific foaming, wetting, or emulsification needs, adhering tightly to regulatory mandates for purity and residuals.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 compliance
    • US EPA TSCA (Toxic Substances Control Act) listing
    • OECD 301 Series (Biodegradability)
    • IFRA Standards for fragrance ingredient safety (personal care)

    Typical usage ratio

    • Hydroformylation: 100% 1-Octene input; downstream ethoxylation molar ratio varies from 2–10 EO units per alcohol, tailored to targeted surfactant properties

    Downstream process integration

    • Entry point: hydroformylation reactors with rhodium/cobalt catalysts to generate aldehydes, then hydrogenation to form alcohols
    • Purified C8 alcohol flows to continuous ethoxylation
    • Quality assurance via HPLC/GC at each batch transfer

    Final product types

    • Laundry and dishwashing detergents
    • Industrial and institutional cleaners
    • Personal care formulations (shampoos, shower gels)
    • Textile wetting agents

    4. Plasticizer Intermediate Synthesis for Flexible PVC

    Our material acts as an essential intermediate in manufacturing specialty plasticizers, such as di-2-ethylhexyl phthalate (DEHP) and non-phthalate alternatives used in flexible polyvinyl chloride. Its conversion via oxo-alcohol batch reactions yields 2-ethylhexanol, a demanded primary alcohol component for esterification with phthalic anhydride or adipic acid. The resulting plasticizers meet stringent migration, volatility, and non-toxicity requirements in compliance with both industrial and medical standards. Tight feedstock control ensures minimization of trace impurities that impact downstream plastic clarity and migration performance.

    Industry compliance standards

    • EU REACH Annex XVII entry 51/52 (Restrictions on phthalates in PVC)
    • US FDA 21 CFR 177.2600 (Rubber articles intended for repeated use)
    • EN 71-3 (Safety of toys—migration of certain elements—applies for toys and childcare articles)
    • ISO 9001:2015 implemented in plasticizer production sites

    Typical usage ratio

    • Oxo-alcohol synthesis: 1-Octene to syngas 1:1.1 molar for best yield; downstream esterification typically 67–72% plasticizer loading in flexible PVC compounding, based on plasticizer type and application standard

    Downstream process integration

    • Conversion in continuous or batch oxo-alcohol reactors
    • Purification and direct feed into esterification kettles with anhydrides or acids
    • Plasticizer addition to PVC compounding units for blending and melt extrusion

    Final product types

    • Medical tubing and blood bags
    • Flexible wire and cable insulation
    • Flooring and wall coverings
    • Toys and childcare items compliant with migration limits

    5. Alkylation Feedstock for Specialty Chemical Production

    Chemical producers use 1-Octene as a high-purity alkylation feedstock for synthesizing additives and specialty chemicals, such as alkylated phenols and alkylaromatic compounds. These substances serve as intermediates in antioxidant and lubricant additive formulation, critical for performance stability in high-temperature and aggressive environments. The consistent molecular structure of our 1-Octene enables tight control of alkyl chain substitution patterns, ensuring reproducibility of additive properties and downstream blending compatibility.

    Industry compliance standards

    • OECD SIDS (Screening Information Data Set) requirements for chemicals
    • EN ISO 17025 (Analytical validation in additive QC labs)
    • APME Quality Certification for feedstock traceability
    • GHS labelling for specialty chemical intermediates

    Typical usage ratio

    • Alkylation: 1-Octene to phenol/aromatic compound ratio 1.0–2.5:1 depending on target molecular weight and product specification

    Downstream process integration

    • Direct alkylation via Lewis acid catalysis
    • Continuous flow or batch reactors with inline viscosity and GC monitoring
    • Transfer to downstream formulating tanks for additive blending

    Final product types

    • Lubricant antioxidants (e.g. alkylated diphenylamines)
    • Non-ionic surfactant intermediates
    • Specialty resins for coatings
    • Industrial process additives
    Free Quote

    Competitive 1-Octene prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    1-Octene: Insights from Direct Manufacturing Experience

    Understanding 1-Octene from a Practical Viewpoint

    In a busy production facility, the everyday reality centers on more than metrics or grades. For those who work closely with 1-octene, it’s always about trust in the raw material. We make this alpha-olefin from straight-chain hydrocarbons, usually by cracking or ethylene oligomerization. Working at the origin of the supply chain means real familiarity with the process, as each batch reflects investments in technology, purification, and quality management.

    1-octene (C8H16), for us, isn’t just a molecule. This is a clear, colorless liquid with a lightly sweet odor. We always monitor the key specs: purity by GC, water content, acidity, and color (APHA number). Almost every production run targets greater than 99% purity, very low water (under 30 ppm by Karl Fischer titration), with acid numbers so low they border on background noise. Color and clarity matter, not for marketing, but to meet the needs of customers who process or polymerize the material. Our team blends engineering know-how with hands-on vigilance; tolerance for error is slim because each issue in production ripples down the line.

    Model and Batch Consistency

    Internally, our focus sits on the batch-to-batch consistency and control of trace components. The reality is, even a single impurity spike can affect downstream reactions, especially in polyethylene copolymer applications. We’ve invested in high-grade distillation columns, inert handling, and sealed transfer lines to minimize oxygen, moisture, and unsaturated byproducts. These details rarely appear in trade advertising, but they’re the backbone of the stable product our clients return for. For those curious about "models," in chemical manufacturing we refer to process routes and internal qualifications rather than marketing model names. Our typical grade simply surpasses industry standards, with specs set by years of experience and feedback.

    1-Octene’s Real Uses in Chemical Industry

    Most of our 1-octene goes straight into the tanks of big polyolefin producers running gas-phase or solution-phase reactors. It’s a preferred comonomer for linear low-density polyethylene (LLDPE) and specialty elastomer plants. Polymer chemists appreciate the way its eight-carbon chain balances flexibility, processability, and impact resistance in the finished product. The even distribution of 1-octene throughout a polymer chain hits a sweet spot for clarity, sealing, and mechanical strength; that’s from years of sharing technical feedback with partner companies.

    Outside the plastics space, formulators in the surfactants sector buy 1-octene as a raw material for alcohol ethoxylates or sulfates. They rely on it to get precise chain lengths and to meet environmental pressure for biodegradable ingredients. Lubricant formulators also trust it for their high-performance synthetic oils—PAOs (polyalphaolefins)—where its purity directly impacts viscosity and oxidation resistance.

    Comparison with Other Alpha-Olefins

    Day to day, we field questions from industrial chemists or plant managers comparing 1-octene with close relatives like 1-hexene or 1-decene. Each of these alpha-olefins comes with its own performance profile. 1-octene lands in the middle of the range: it adds blocky, tough segments to copolymers in a way neither lighter (1-hexene) nor heavier (1-decene) monomers quite match. Our partners in film production know how 1-octene helps to tune sealing and puncture resistance, whereas hexene might give slightly more stiffness and decene, more softness and lower density.

    Process-wise, 1-octene’s volatility and flash point mean we’ve set up cold storage and vapor control systems throughout our facility. It isn’t as light or flammable as 1-butene, nor as dense and hard to vaporize as 1-dodecene. Our operators work under strict process safety conditions, but they also appreciate how straightforward 1-octene is to pump, meter, and blend without special gear.

    Tackling Production Challenges on the Floor

    Manufacturing 1-octene, we don’t rely on textbook flowsheets. Variations happen: feedstocks shift, catalysts foul, distillation columns need cleaning, and every plant turnaround reveals new improvement opportunities. We deal with high standards for hydrocarbon separation—keen-eyed operators watch the temperature glide through the butene/octene split in the fractionation columns, logging deviations for later review. No matter how much automation we install, the human factor rules; routine walks through the plant still yield insight that’s hard to gain from sensor readings alone.

    Moisture—usually the enemy—demands attention at every valve and pump. Water content has to be pressed down low, as even a slight leak or condensation during transfer can spoil a truckload for high-end customers. That’s why we source and maintain desiccant columns obsessively and spare little on staff training. Every time a downstream client flags a change in reactivity, our QA team traces it, right down to the tank farm.

    Quality Control Beyond the Lab Bench

    Our quality team approaches verification with both speed and caution. Besides the usual GC and Karl Fischer data, every batch faces scrutiny as a finished product. We look for trace-peroxide formation, polymerization residues, and microcontaminants collected from lines and tanks. Real-world quality doesn’t come from test certificates—it comes from the discipline of repeating the basics, recording results, and teaching newer operators why those steps matter.

    The smallest overlooked impurity can ripple out: we’ve had partners whose film lines gummed up after a few tons of off-spec octene, and every round of troubleshooting trains us to catch something earlier next time. We keep an archive of split samples and keep detailed operation logs. Each customer’s application guides the spec sheet, but their trust grows only through consistent supply and technical support.

    Regulatory and Environmental Considerations in Production

    Operating at the raw material level means responsibility for compliance every day, not only when a shipment crosses a border. Our production and logistics teams follow local and international standards on handling, emission, and spill prevention. We take pride in our closed transfer systems, vapor recovery setups, and updated operator training. These are real investments, not compliance box-ticking or public-relations moves.

    For 1-octene, air emissions need careful management—uncontrolled vapor can contribute to local ozone levels, so our flares and scrubbers are checked weekly. Water run-off regulations force us to rethink even minor process leaks. Sometimes this means unexpected shutdowns for minor pipe repairs or insulation upgrades, but direct accountability for the production site keeps lessons clear and personal.

    Market Trends Impacting Decisions on the Production Floor

    We track demand shifts not as outside analysts, but as operators who feel it in the order book and warehouse. If Asia ramps up polyolefin expansion, or a surfactant plant opens in the Americas, our plant schedules change and overtime climbs. The price and availability of feedstock ethylene, influenced by crackers and natural gas trends, dictate our output. When supply runs tight, the whole line operates with extra vigilance; old equipment gets upgraded, supply chain partners get more direct updates, and customers expect transparency about timelines.

    Phasing out phthalates and prioritizing safer surfactant bases, we’ve had to adapt production and invest further. Increasing regulations around VOCs and carbon emissions affect our shift planning and equipment upgrades. Surges in demand from packaging and film—especially driven by food or medical standards—keep us reviewing and increasing our ability to assure high-purity, low-residue material.

    Responsibility to Employees, Neighbors, and Customers

    Making a chemical like 1-octene doesn’t happen in isolation. The challenges of handling a flammable, reactive liquid draw clear lines for process safety. We welcome external audits and up-to-date health and safety protocols, not just to meet codes but to protect our own people working inches from pipes and storage tanks each day.

    As neighbors in an industrial zone, we’re real about our obligation to local air and water standards. Waste streams are minimized with continuous distillation recycling, and most off-spec or washed-out product is reprocessed, not discarded. We use steam to strip lines and train all employees for emergency spill drills, but the best spill is the one that never happens.

    We see real benefits in frequent dialogue with downstream customers. New applications, stricter batch requirements, or a request for non-traditional packaging drive us to adjust. Sometimes demand appears lighter, and that lets us focus inward—tweaking processes, checking inventories, and looking after people and equipment. In busy periods, keeping up speed without shortcutting checks takes experience, and that knowledge is what keeps us balanced.

    Continuous Improvements: The Honesty of Experience

    Every run through the plant feels different. Routine brings confidence, but it pays to keep curiosity alive. Our team swaps ideas with polymer scientists, packaging specialists, logistics crews, and environmental engineers to keep our process running clean and our product reliable. We invest in automation where it makes a difference, but don’t lose the hands-on know-how that spots odd noises in pumps or subtle color differences in a new batch.

    Upgrades in catalyst or distillation technology have helped us cut waste and boost selectivity, but these come from seeing patterns in plant behavior—even minor ones—that allow us to act before setbacks. Each year, feedback from the field sharpens our approach, especially from high-end film producers and lubricant formulators who can spot subtle changes that escape even advanced analytical gear. Our approach emphasizes humility toward the learning curve: every turnaround, every complaint, every technical request is another lesson.

    Specific User Requests and Packout Insights

    We pay special attention to how customers want their material delivered, because the job doesn’t finish at the end of the pipe. 1-octene moves by truck, rail, and ISO tank, and shipping conditions affect stability and compliance on arrival. We often check with truck and tank operators for tank cleanliness and test methods. Some applications—pharmaceutical and medical—demand tighter specs on aldehydes or color than commodity plastic users.

    Some partners prefer nitrogen blanketing, especially for storage that could last weeks or months; others turn around inventory quickly, lessening risk of oxidation. We hand over real purity and contamination data for each batch, because skipping details or glossing over imperfections hurts more than it helps. For us, no load leaves the site without the QA team’s approval and a clear trail of results for reference.

    Real Value in Reliability

    Years in 1-octene production have shown us that reliability forms the real value proposition. A technical issue in the feedstock plant, a breakdown at the distillation column, or missed details on a shipment quickly manifest as headaches for someone further down the supply chain. Each member of our staff learns that the reputation of both our plant and our product relies on details: tight valve seals, stable control of distillation heads, tight drum closures, and reliably tested shore tanks.

    We avoid overpromising; instead we work on clear communication about lead times and supply constraints. Repeat businesses grow from that grounded honesty, and feedback from experienced formulators keeps us aiming for better. Seeing our material used in flexible packaging, high-strength films, or high-grade synthetic lubricants is reward enough. Feedback, both positive and negative, gets taken seriously in plant operations, morning meetings, and year-end reviews.

    Outlook for the Future

    Sustaining high standards with 1-octene will never become routine work. Regulations shift, raw material costs rise, and competitive pressure increases. Process optimization and technical cross-training aren’t just ways to control costs—they’re ways to keep producing batches with fewer surprises and better yields in tight market conditions. Automation and analytics grow more important every year, but so does the grounded intuition developed on the plant floor.

    Collaborating with end users matters. When a customer brings a new film requirement for ultra-high clarity or pharmaceutical packaging, it becomes a challenge—one we address through both new technology and practical troubleshooting. As demand grows for tailor-made polymers, advanced lubricants, and bio-based surfactants, the definition of "high-purity" rises, and with it, our internal standards.

    Informed by Day-to-Day Realities

    Readers often encounter 1-octene’s name in abstracts, market reports, or polymer patents, but hands-on manufacturing paints a more direct picture. For those in production, it’s not only about hitting technical spec—it’s about the discipline and responsibility that passes from shift to shift, from one generation of plant worker to the next. All those measurements, every trial, and every lesson learned gets built into the next cycle, all with the practical recognition that reliability, transparency, and safe practices allow products like ours to support advances well beyond the gates of our facility.

    Supplying 1-octene conjoins science and routine, with every tank filled by hard-won expertise. From upstream sourcing through to final shipment, experience at every level feeds into the quality end-users depend on. The future of chemicals like 1-octene will follow market pressure, regulatory guidance, and technical innovation, but on the production floor, each batch provides a new chance to reinforce standards built over many years.