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HS Code |
845864 |
| Name | Decene |
| Molecular Formula | C10H20 |
| Molar Mass | 140.27 g/mol |
| Appearance | Colorless liquid |
| Density | 0.74 g/cm³ |
| Boiling Point | 170-172 °C |
| Melting Point | -66.3 °C |
| Solubility In Water | Insoluble |
| Flash Point | 51 °C |
| Refractive Index | 1.419 |
| Chemical Structure | CH2=CH-(CH2)7-CH3 |
| Cas Number | 872-05-9 |
As an accredited Decene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Decene is packaged in a 1-liter amber glass bottle with a secure screw cap and labeled with product name, purity, and hazard symbols. |
| Shipping | Decene, an organic compound, should be shipped in tightly sealed containers to prevent leaks and evaporation. It must be stored separately from oxidizing agents and away from heat or ignition sources. Transport according to local, national, and international regulations, ensuring proper labeling and documentation for flammable liquids. Handle with suitable protective equipment. |
| Storage | Decene should be stored in a tightly closed container, in a cool, well-ventilated, and dry area, away from sources of ignition or heat. It should be kept away from oxidizing agents and direct sunlight. Use proper grounding and bonding to prevent static discharge. Storage areas must be clearly labeled and comply with local regulations for flammable liquids. |
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Purity 99%: Decene Purity 99% is used in the synthesis of linear alkylbenzene, where it ensures high detergent quality and minimal by-product formation. Viscosity Grade 3 cSt: Decene Viscosity Grade 3 cSt is used in synthetic lubricants, where it provides low friction and excellent oxidative stability. Molecular Weight 140.27 g/mol: Decene Molecular Weight 140.27 g/mol is used in polyalphaolefin production, where it supports consistent polymer chain length for uniform fluid properties. Melting Point -66°C: Decene Melting Point -66°C is used as a specialty solvent in low-temperature polymerizations, where it maintains fluidity and reactivity at subzero conditions. Stability Temperature 200°C: Decene Stability Temperature 200°C is used in high-temperature sealant formulations, where it resists decomposition and ensures prolonged performance. Sulfur Content <0.01%: Decene Sulfur Content <0.01% is used in the manufacture of eco-friendly plasticizers, where it minimizes sulfur emissions and enhances product safety. |
Competitive Decene prices that fit your budget—flexible terms and customized quotes for every order.
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The chemical industry keeps finding ways to streamline production, cut costs, and keep products consistent. That’s where Decene steps in. Chemically, Decene refers to an unbranched alkene with ten carbon atoms. It pops up in a lot of manufacturing workflows, but not all Decene is made equal; most people working in formulation and industrial chemistry often talk about 1-Decene. This specific isomer stands out because its molecular structure — double bond at the very tip — reacts well in oligomerization and polymer production. You might see people asking why 1-Decene instead of another isomer. The answer comes down to reaction sites and how reliably it builds long chains, like those needed for synthetic oils and surfactants. Other alkenes, even those close in structure, can’t keep up with how effectively 1-Decene’s terminal double bond links up.
High-purity 1-Decene isn’t a backyard chemical. It’s usually found as a clear, colorless liquid. Producers focus on removing unwanted by-products. The sample you pick up for industrial synthesis often packs a purity above 98%. That matters for end uses: water-clear 1-Decene flows well and avoids gumming up pipes or leaving residues in gearboxes. Its boiling point hovers near 170°C, so it's stable in many blending and reaction environments. Density lands around 0.74 g/cm³ at room temperature, and that predictable quality plays a role every time technicians measure or move product. In handling, it behaves less like a volatile solvent and more like a modest hydrocarbon — just watch your ventilation, since most organic vapors bring flammability risk and strong odors in closed spaces.
Big refineries and chemical plants buy up Decene for a reason. Most of the world’s use comes from manufacturing polyalphaolefins, or PAOs — these are the backbone ingredients in many synthetic lubricants. Ask anyone deep into car maintenance, and they’ll tell you: full-synthetic engine oils outlast mineral oils, especially when exposed to heat and stress. Those oils trace their resilience back to Decene. Producers run Decene through catalysts and bring out PAO base stocks, which carmakers and industrial lubricants suppliers desperately need.
Beyond lubricants, Decene finds a second home in surfactant and detergent synthesis. Take ethoxylation or sulfonation: chemists add functional groups to the Decene chain, building cleaning agents for consumer and industrial products. Its long chain structure helps surfactants break up grease and dirt better than shorter or heavily branched alternatives. That extends straight down the value chain into shampoos, laundry liquids, and dish soaps.
Some plants use Decene as a starting point for plasticizers and specialty polymers. The flexible backbone it provides shows up in the final plastic — keeping products from becoming brittle or tough to handle in cold weather. Plastic window seals, outdoor cables, and flexible films owe their flexibility in part to this molecule.
Straight-chain alkenes span a range of carbon counts, but C10 often hits the sweet spot. Shorter alkenes (like hexene or octene) don’t build PAOs with high enough viscosity indexes; they leave synthetic oils too runny for high-performance engines or industrial gearboxes. On the flip side, longer alkenes (think dodecene or tetradecene) bring heftier molecules, but blending them can get tricky. Flows turn sluggish, and processing needs bigger pumps and heating systems. Decene’s ten-carbon frame offers just enough chain length for physical performance, without drifting into the handling headaches of bigger cousins.
1-Decene stands out compared with branched and internal alkenes. Reactions involving the terminal double bond proceed cleanly, resulting in more predictable products. For surfactant production, the difference shows up as better foaming or cleaning performance. In the world of lubricants, competitors have tried branching out to save cost, but mechanics and equipment operators keep coming back to Decene-derived PAOs — they see less breakdown and cleaner machinery over time.
Compare Decene to mineral oil feedstocks. The advantage reveals itself in every long-haul oil change: PAOs made from Decene keep their viscosity at both high and low temperatures, don’t carbonize as quickly, and support extended drain intervals. Most drivers never notice this on a spec sheet, but anyone pushing equipment in extreme conditions starts demanding PAO-based lubricants made possible by Decene chemistry.
Chemical quality often feels like an invisible concern to end-users, but mistakes trickle down. Unregulated Decene, often produced or shipped from regions with lax oversight, sometimes contains sulfur or aromatic contamination, which shortens the life and reliability of everything from turbine oil to dish soap. Reputable producers publish certificates of analysis and back their products with thorough traceability — a real need in a globalized market where container origin matters. Industry watchdogs and regulators keep pushing for cleaner, purer Decene. While some shortcuts find their way into bulk trades, lessons from engine failures and plant recalls serve as warnings for companies tempted to compromise.
Responsible producers focus on process efficiency and accurate monitoring. Examples from recent industry case studies show that running fixed-bed catalysts and new distillation columns improves selectivity for the C10 fraction — less waste, reduced emissions, and lower energy usage. Industry groups have turned attention toward lifecycle analysis, working to map out carbon footprints tied to Decene production. Forward-thinking companies now blend feedstock selection with renewable sourcing, gradually shrinking fossil dependence.
On the customer side, greater transparency makes real sense. End-users — whether chemical processors, lubricants formulators, or plastics manufacturers — increasingly demand test results, batch histories, and documentation that explain impurity profiles and performance benchmarks. At the same time, tighter regulations and sustainability metrics call for better end-to-end supply chain tracking. Some firms have started using blockchain or advanced ERP systems, logging every document and movement linked to a shipment of Decene. These digital records help flag suspect shipments early and keep everyone in the loop about product quality.
Waste management and safe handling can’t stay an afterthought. Spills or improper dumping of hydrocarbon intermediates have damaged soils and water supplies in the past — the chemical sector doesn’t get a free pass just because much of the work happens out of sight. Most modern plants install vapor recovery equipment, adopt best-practice safety training, and invest in regular environmental monitoring. Downstream, buyers face a responsibility, too: using up every drop, safely storing chemicals, and following local rules for waste transport and disposal.
I’ve seen up close how a single impurity or sloppy handling can sideline whole lots of end-use product. Truckloads of supposedly “standard” Decene arrived at one factory I worked with. The plant’s filters started plugging, operators noticed changes in lubricant color and shelf life, and clients canceled orders. Tracing the problem back took weeks, and all signs pointed to a cut-rate batch that skipped steps in purification. The lesson stuck: chemistry doesn’t stop with the molecule itself. Every person, from the distillation technician to the warehouse worker logging drums, shapes the product’s reliability.
About a decade ago, as the industry shifted toward PAOs, synthetic stocks built off Decene became standard in newer cars and heavy-duty machinery. Most operators, especially those with gearboxes or engines running nonstop, noticed fewer failures. Downtime dropped because PAO oils coped better with stress and temperature swings. There’s a real satisfaction in knowing the switch to a synthetic lubricant could mean another year or two before any major teardown or rebuild.
Outside the factory, Decene products influence everyday activities. Have you ever wondered why modern detergents rinse away so easily or why your winter car wash doesn’t leave streaks? That’s Decene-derived surfactants at work. Many of these practical gains came through trial and error, a fair share of breakdowns, and the willingness of companies to trust a molecule not just for its chemical textbook profile but for everyday reliability.
Looking ahead, the biggest challenge isn’t simply squeezing more Decene out of every barrel but doing so with a lighter environmental footprint. Some research outfits have started tapping bio-based feedstock, using renewable resources — like plant oils or waste streams — as an alternative starting point for the alkene chain. While economics still favor traditional petrochemical routes, pressure keeps mounting. Global demand for low-carbon and circular-origin raw materials has moved from marketing slogan to real procurement target in large multinational firms.
Production technology matters. Efficient catalysts, updated process controls, and closed-loop systems help cut emissions and keep impurities out of products. In practical terms, companies investing in the next generation of reactors and separation equipment face less regulatory pressure later. These choices often show up in the reliability of bulk shipments and peace of mind for customers, who can see their own risk and waste profiles shrink over time.
Better documentation and real-time monitoring make it tougher for bad actors to sneak unsafe or impure Decene into the market. Regulators play their part, but the chemical sector’s reputation rests as much on company-level vigilance as on written rules. Open communications — between producers, transporters, and end-users — build trust. Voluntary programs, like shared databases of supplier audits or third-party lab results, help everyone know what this month’s batch actually delivers.
Anyone sourcing Decene — whether for a blending plant, detergent manufacturer, or research lab — stands to gain by taking a hands-on approach. Visiting a supplier, learning about their purification process, and asking tough questions about batch consistency turns a routine purchase into risk management. Insisting on thorough, detailed product documentation isn’t just smart business; it’s a necessity in a world where supply chains stretch across continents.
Cutting corners on Decene purity or documentation trickles down. In lubricants, inferior material brings blown seals, stuck valves, and rapid breakdown. In detergents, off-spec product dulls performance and may even breach safety rules. Every buyer — from the procurement officer at a global conglomerate to the shop floor manager mixing surfactants by the drum — benefits from digging deeper into the credentials and handling practices behind every shipment.
Certification from credible testing labs adds real value. Test results from independent outfits, NOT just in-house labs, help keep everyone honest, especially as competitive pricing pressures mount. One recent industry episode, widely discussed among procurement circles, involved a “bargain” Decene shipment that failed industry-standard gas chromatography tests, resulting in an embarrassing recall and several months of supply chain headaches. The upfront cost of better testing and stricter sourcing ultimately paid for itself many times over.
Decene isn’t standing still. New catalysts — often designed at the nano scale — promise even cleaner and more targeted reactions, unlocking uses in specialty plastics and more advanced surfactant molecules. Researchers study branching and double-bond placement to achieve even tighter control over product properties, targeting higher efficiency and lower waste. As new regulations and consumer awareness push for better environmental outcomes, scientists tinker with ways to recycle or upcycle Decene derivatives, building on the molecule’s reputation for flexibility and resilience.
Collaboration makes a difference here. Partnerships between academic labs and major producers accelerate these innovations, bringing new grades of Decene to market that do more with less. Whether it’s tougher, safer cables for electric vehicles or detergent formulations that biodegrade more quickly, Decene’s carbon backbone provides a launch pad for next-generation chemistry. None of those breakthroughs come from just accepting yesterday’s specification sheets — they follow from pushing boundaries, testing, and constant feedback between users, researchers, and makers.
History across the chemical supply chain contains tough lessons. High-profile spills, equipment failures, and costly recalls often hinge on what seemed like minor choices around purification, documentation, or batch management. I once worked on a troubleshooting project where mislabeling upstream Decene containers led to the wrong isomer going into a critical surfactant formulation. That one error triggered foaming problems down the line, causing an expensive halt to production. Sorting out the mix-up required retracing every handoff and storage step, retraining everyone on the basics of chemical classification.
That story isn’t rare. Demand for Decene chases every curve in the automotive and manufacturing sectors, so producers sometimes rush inventory without full QC. End-users relying on just-in-time inventory policies face extra risk in these pressurized times. Updates to workflow — things like automated tracking, sample archiving, and two-person signoff on receipts — make life easier and keep nasty surprises off the dock. Change takes buy-in from workers, not just new machines or paperwork.
Chemical buyers build confidence with repeatability. If today’s shipment works beautifully and tomorrow’s brings headaches, reputations sink fast. That means developing a feedback line from the lab or factory floor back to the supplier. Many experienced buyers keep detailed logs — how product looked, handled, and performed run after run. If cloudiness develops or a foul odor creeps in, they act quickly, checking supporting documentation, holding future shipments, or running extra tests.
In the field, quick response matters. Equipment operators who spot a new lubricant with off color, odd viscosity, or residue formation shouldn’t wait for plant management to chase answers. Reporting issues early, isolating suspect barrels, and supporting supplier inspections protects both the operator and the end-user. The lag between spotting a concern and fixing a process glitch can rack up costs, especially in fast-paced or high-stakes environments.
Large customers often set up preferred supplier programs, scoring vendors against a checklist — price, documentation, delivery performance, and after-sales support. Those who meet higher bars tend to build long, mutually beneficial relationships. Such programs raise visible standards over time and help separate reputable Decene producers from opportunists chasing fast profit over lasting value.
The pace of industry change rarely lets up. Automotive makers now demand base fluids that stand up to electric drivetrains and new fuel mixes, putting Decene’s derivative lubricants in the spotlight again. Large-scale detergent makers, under more pressure to eliminate microplastics and cut bioaccumulative substances, keep asking for Decene-based surfactants with sharper environmental credentials. These pressures ripple back up the chain, pushing for more efficient synthesis, tighter impurity controls, and improved end-of-life disposal or recycling practices.
Sustainable chemistry won't take root by accident. Producers who seek partnerships and third-party validation, invest in clean technology, and remain responsive to shifting standards carve out real advantages — both in the eyes of regulators and the end-users who rely on every drum and tanker. Transparency, traceability, and reliable documentation replace handshakes and off-the-shelf assurances. That keeps all parties — from processors to mechanics to regular consumers — informed and protected as industry expectations evolve.
Looking back on decades of advances in synthetic lubricants, plastics, and cleaning solutions, Decene has left a lasting mark not because it led with flash, but because it backed up every claim in real-world conditions. In the chemical sector, reliability trumps hype, and Decene sits at the crossroads of proven chemistry and big, practical impact. Decades from now, people may not remember the molecule’s exact structure, but drivers, homeowners, and operators will have cleaner, longer-lasting, and safer products in hand — thanks, in no small part, to the choices made by everyone who handles, blends, and purchases Decene along the way.