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HS Code |
456467 |
| Chemicalformula | C2H4 |
| Molecularweight | 28.05 g/mol |
| Appearance | Colorless gas |
| Odor | Sweet, faint odor |
| Boilingpoint | -103.7°C |
| Meltingpoint | -169.2°C |
| Density | 1.178 kg/m³ at 0°C |
| Solubilityinwater | Slightly soluble |
| Flammability | Highly flammable |
| Casnumber | 74-85-1 |
| Vaporpressure | 50.8 bar at 21.1°C |
| Autoignitiontemperature | 490°C |
| Lel | 2.7% (Lower explosive limit in air) |
| Uel | 36% (Upper explosive limit in air) |
| Criticaltemperature | 9.21°C |
As an accredited Industrial Ethylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Industrial Ethylene is packaged in sturdy, high-pressure steel cylinders, each containing 50 kg; cylinders bear hazard labels and usage instructions. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL): Industrial Ethylene is loaded in 20-foot containers with secure cylinders or tanks, ensuring safe, efficient transportation. |
| Shipping | Industrial Ethylene is shipped as a compressed, flammable gas in high-pressure cylinders or tankers. Containers must be clearly labeled, secured upright, and stored away from heat sources and ignition. Transport complies with international regulations (e.g., ADR, IMDG, DOT). Proper ventilation and emergency procedures are essential during shipping and handling. |
| Storage | Industrial ethylene should be stored in tightly sealed, clearly labeled pressure vessels or cylinders designed for flammable gases. The storage area must be cool, dry, well-ventilated, and free of ignition sources. Temperature should be controlled to prevent excessive pressure build-up. Proper grounding, fire suppression systems, and emergency response protocols are essential to ensure safety, as ethylene is highly flammable and explosive. |
| Shelf Life | Industrial ethylene typically has an indefinite shelf life if stored properly in high-pressure cylinders, away from heat, sunlight, and ignition sources. |
Applications of Industrial Ethylene in Industrial ManufacturingIndustrial ethylene stands as a primary petrochemical building block in large-scale industrial production. We supply ethylene for integrated use in polymer synthesis, intermediates production, and chemical processing. Our participation from feedstock preparation to real-world deployment covers several major downstream sectors with proven technical standards, application ratios, and process integration requirements. 1. Polyethylene Resin ManufacturingEthylene functions as the foundation monomer for both low-density polyethylene (LDPE) and high-density polyethylene (HDPE) resin plants. Ethylene feeds directly into high-pressure polymerization reactors, where the conversion process requires precise thermal and pressure controls to achieve targeted molecular weights, melt indices, and polymer chain structures for varied end-use plastics. Our ethylene maintains consistency in purity and moisture content, supporting uninterrupted high-throughput runs and compliance with sector-specific specifications. End resin grades must meet film, molding, and pipe industry demands for tensile strength, flexibility, and stress-crack resistance. Industry compliance standards
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2. Ethylene Oxide ProductionManufacturers in the surfactants and glycol markets demand stable ethylene streams for ethylene oxide production via direct oxidation. Ethylene reacts with oxygen over a silver-based catalyst under carefully controlled temperatures to yield ethylene oxide with minimal byproducts. The purity and moisture elimination from our supply chain reduce side reactions and optimize catalyst longevity. Downstream, ethylene oxide enables synthesis of ethylene glycol, a base component for automotive antifreeze, PET resin, and polyether polyols for foams and surfactants. Industry compliance standards
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3. Vinyl Chloride Monomer (VCM) SynthesisChlor-alkali and PVC manufacturers employ ethylene as a key reactant in ethylene dichloride (EDC) synthesis before cracking for vinyl chloride monomer generation. EDC via direct chlorination or oxychlorination combines ethylene and chlorine or HCl under catalytic conditions, which then feeds thermal cracking units. Product quality, including low halide impurity and targeted conversion efficiency, relies on stable ethylene grade and delivery. The resultant VCM supports rigid and flexible PVC production across industrial, construction, and consumer applications. Industry compliance standards
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4. Ethylbenzene and Styrene Monomer ProductionIntegrated aromatic and polymer plants use ethylene as an alkylation agent for benzene, generating ethylbenzene in the presence of acid catalysts. Ethylbenzene proceeds to dehydrogenation reactors to produce styrene monomer, which is the essential raw material for polystyrene and ABS plastics. The ethylene feed rate, purity, and contaminant profile influence alkylation selectivity, downstream conversion yields, and styrene purity benchmarks in accordance with global regulatory and customer standards for electronics, packaging, and automotive sectors. Industry compliance standards
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5. Alpha-Olefin Synthesis for Detergent and Lubricant IndustriesIndustrial alpha-olefin units synthesize linear 1-alkenes, such as 1-butene, 1-hexene, and 1-octene, through controlled ethylene oligomerization. These olefins serve as critical co-monomers for LLDPE modification, synthetic detergent surfactants, and premium lubricant base oils. Our high-purity ethylene reduces byproduct generation and enhances process selectivity, supporting advanced oligomerization catalyst systems. End uses require detailed attention to chain-length distribution, pour point, and detergent compatibility, influencing global formulation approaches in cleaning and lubrication technologies. Industry compliance standards
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6. Ethanol via Indirect Hydration ProcessChemical and fuel-grade ethanol synthesis by the indirect hydration of ethylene continues to serve markets where renewable feedstock is limited. Ethylene reacts with sulfuric acid to produce ethyl sulfate, which then undergoes hydrolysis in dedicated reactors. By controlling the ethylene-to-acid ratio and continuous impurity monitoring, we support facilities meeting stringent statutory limits on residual organics and byproducts in the resulting ethanol. Large-scale users rely on consistent ethylene supply for plant load balancing and regulatory reporting. Industry compliance standards
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Competitive Industrial Ethylene prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8618136850665 or mail to sales4@ascent-chem.com.
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Tel: +8618136850665
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Every cylinder and pipeline of industrial ethylene produced here comes from a history of trial, learning, and responsibility. Making ethylene, we draw from decades of process engineering—cracking, separation, drying, and purification. Our people move between high-pressure reactors, control boards, and the near-silent runs of compressors, always measuring, always listening for small changes in a process that centers on reliability. Ethylene, chemical formula C₂H₄, might look simple on a chart, but its real value surfaces in the details that demand the full attention of skilled chemists and operators.
As a feedstock, ethylene started transforming the chemical industry in the past century, and that story continues today. Sometimes called the “gateway molecule,” ethylene allows for a vast array of downstream chemistries. Polyethylene—what you find in plastic bottles, films, and countless containers—carries the lifeblood of industrial ethylene. Ethylene glycol crops up in antifreeze or polyester fibers, packaging the everyday world. But scratch the surface and it goes deeper, powering the synthesis of styrenics, PVC, solvents, and surfactants. At the plant, producing ethylene means thinking not just about a single customer or application, but an entire ecosystem of manufacturers counting on purity, pressure control, and timely delivery. Cutting corners simply does not fit the story.
Typical output here runs to 99.95% purity or higher, measured to strict specifications in our own labs and checked again by customer audits. Gas chromatographs and moisture meters have become trusted tools, but training counts even more—junior operators learn to recognize signals in a column or a compressor that mean it’s time for recalibration or deeper maintenance. Cylinder delivery ranges from the routine 40-liter vessel to multiton bulk loads via pipeline and ISO tank, always packed under strict leak-tight protocols, maintained at constant temperature and pressure. Years of feedback from polymer, chemical, and pharmaceutical plants have taught us which customers need specialty valve connections, stabilization techniques, or even small modifications in dew point. What shows up as “high-purity ethylene” on a bill of lading stems from dozens of daily checks, both human and machine, to keep that promise.
We see real risks in skipping over what seems like minor details. Ethylene’s flammability cannot be overstated. A leak undetected places not just products but lives at risk. Our safety drills—rooted in the memories of both near-misses and safe shifts—shape every step, from reactor loading to trailer coupling. Experience built the order of operations: valve checks become routine, detection sensors see continuous upgrades, and our people stay sharp through hands-on drills instead of resting on automation alone.
In the plastics shop, operators count on clean ethylene streams to keep reactors from fouling. One residue trace or oxygen spike interrupts production for hours—sometimes days—putting real strain on output schedules. Our contacts at polymer plants call in every few weeks to compare purity analyses, reporting on their feedstock needs or changes based on shifts in consumer demand (toys in the winter, agriculture in the spring). Always we hear the same: consistency weighs more than spec-sheet promises. A fraction of a percent in frost buildup or trace hydrogen sulfide changes the properties their extruders depend on.
The antifreeze blend house runs coaters and mixers tuned to the right water/ethylene glycol ratio. Cut purity here—even slightly—and viscosity drifts, risking both batch rework and warranty issues for end-users. Large-scale ethylene oxide units leverage oxygen/ethylene reactions under careful ratio control; a misload, wrong-phase supply, or delayed trailer triggers cascade disruptions not just in-house but across entire supply chains of adhesives, textiles, and sterilants. We help these partners by tracking logistics as closely as production, building redundancy into delivery pipelines, and keeping our own troubleshooting teams at the ready for remote startup or shutdown guidance.
Working directly with lab planners in research facilities, our staff knows how specialized grades of ethylene support new polymer science, catalyst study, or green chemistry initiatives. Demand can swing overnight if an experiment encounters a new pathway; our small-batch cylinders supply these trials, and these scientists call us back with results—sometimes astonishing, usually practical—that guide incremental improvement across the line.
Ethylene for industrial use differs starkly from consumer or laboratory types. In-house, we distinguish between “polymer grade” (above 99.95%), “chemical grade” (around 99.5%), and special “research” or “HPCL” purities. Unlike food or medical ethylene, which gets triple-cleaned and routinely sampled for contaminants at sub-ppb levels, our industrial lines focus on what the process downstream demands—getting the sulfur, acetylene, and carbon monoxide specifications right for each application.
Others may emphasize low price, but our standards mean putting more people on troubleshooting, extending maintenance shut-down windows, and running multi-stage drying and filtration. This process stands apart from on-site crude cracking or “fuel” ethylene used in niche operations: those grades include more residuals and relax quality targets. High-volume users prefer our product for the delivery system flexibility and our ability to document every delivery. Each truck or cylinder includes full batch traceability—critical for meeting changing global standards and, in some cases, enabling rapid root cause analysis in the event of product deviations.
We see some confusion in the market: some resellers blend products or cut costs by mixing in lower-cost “off-spec” gas, but seasoned professionals recognize the trace effects almost instantly in their downstream reactions. Polymers lose tensile strength, pipes scale up faster, and catalysts deactivate early—all pointing back to a missed step upstream. In practice, most seasoned buyers demand proof of consistent source and process, which we provide from operation logs, instrument records, and third-party audits.
Running an ethylene plant looks different from inside than the trade press suggests. Ethylene’s low molecular weight, high volatility, and readiness to polymerize in the wrong conditions mean you deal with constant vigilance. Each startup carries risks of over-pressurization and off-gassing. Our control room records show that keeping reactors in balance during transitions—especially from heavy to light feedstocks—calls for continuous adaptation. Operators must trust their readings and communicate directly with maintenance teams. We train our staff never to ignore a “minor” anomaly, as small leaks or temperature variations signal process drift long before alarms sound.
Regulatory tightening isn’t paper-pushing; it reflects hard-earned lessons drawn from incidents. Our compliance group rechecks process controls after every major update in local and international standards, focusing most strongly on emission caps and handling requirements. Each rule ties back to either an industry accident, a scientific finding, or emerging environmental data. Our team’s invested in minimizing flare volume, heat loss, and fugitive emissions—not just for compliance, but because well-run processes save money and prevent reputation risk if something goes wrong in the community.
Raw material swings affect output. Ethylene comes primarily from crude oil or natural gas; both markets swing unexpectedly from price shifts, supply bottlenecks, and geopolitical risks. We track feedstream quality in real time, keeping secondary cracking systems ready for a rapid shift. Our procurement and engineering teams talk in daily huddles—not just to discuss price but also about incoming contaminant risk or adjustment needed in tower cutpoints.
Staff rotation covers every shift, with senior operators mentoring new hires and keeping skill transfer a living tradition. Process upgrades don’t stop when equipment updates land; we maintain a library of lessons-learned from past incidents, and review them as refresher training during pause points in production. Ethylene demands speed during emergencies, but every action gets double-checked for completeness by a second trained person before restart. The tightest hazard comes in valve handling, so our staff drill monthly on leak response and full system depressurization.
Our approach to efficiency always balances risk and output. We fight fouling with precise temperature profiles and regular filter change-outs. Old wisdom says a watched pot never boils, but here, watched reactors avoid dangerous runaway reactions and unplanned shutdowns. Our technical teams leverage sensor data and process models, but past near-misses teach that nothing replaces direct inspection and that “good enough” can become “dangerous” all too fast.
On the logistics front, we realized years back that drivers and warehouse teams need full process knowledge—not only shipment instructions. Every handler undergoes cross-training in gas behavior, incident reporting, and practical troubleshooting, especially at transfer stations or customer sites where the realities differ from the lab or plant floor. This hands-on attention to product through each handover means fewer damaged containers, better end-user outcomes, and tighter communication across every supply link.
Supporting partner sites means making live technical support available, not just a call center handing off generic advice. Our teams hold direct conversations with line foremen, troubleshooting input-side pressures, vapor withdrawal rates, and the precise delivery schedules downstream users rely on to avoid plant downtime. This approach means fielding nighttime calls, conducting remote diagnostics, and sometimes shipping replacement products on short notice to avoid costly losses.
Building a sustainable ethylene supply chain has grown more complex as demand for green chemistry and reduced carbon footprints rises. We contribute by optimizing energy recovery in our processes and recycling off-gases into our fuel pool. The lessons here come from measuring every ton of energy, tracking recovery against benchmarks, and investing in ongoing catalyst and separation research. Market pressure leans toward bio-based ethylene, so we've started evaluating pilot runs from bioethanol sources, but the scale and purity requirements keep traditional steam cracking as the backbone for now.
Internally, we push for transparency through full traceability. Blockchain and digital ledger adoption in process tracking saw slow uptake, yet our teams adapted, logging flows and batch IDs in secure databases. This shift lets us answer customer questions about origin, batch events, or changeovers—important not only for regulatory audits, but for troubleshooting unfamiliar performance drops across a supply chain.
On the customer front, direct communication remains key to preventing downstream mishaps. End users approach us regularly with application changes, asking for guidance on adapting feed rates, storage conditions, or impurity thresholds. We meet these requests by maintaining a “living” specification, revised after each significant customer trial. Instead of rigid approaches, our teams prefer adapting in real-time, drawing from past data, interviews, and run reports.
Producing industrial ethylene never feels routine. The every-day tasks—checking readings, maintaining equipment, connecting with customers, reviewing incident logs—tie us directly to the realities of both chemistry and commerce. Decisive work in our plant touches thousands of businesses and, through them, millions of lives, in ways both visible and invisible. Our staff’s pride comes from holding high standards, investing in careful process, and learning each day from the challenges that pop up in real-world production.
Looking back, the difference between one cylinder of our ethylene and another producer’s batch may seem small from the outside. Yet through experience, mistakes, conversations with users, and a shared sense of purpose, our team knows every detail matters. That’s the ground-level reality—each molecule shaped by people, process, and the discipline learned from years inside the plant. Ethylene shapes today’s industrial world, and our job is to keep it dependable, traceable, and safe, shift after shift, year after year.
