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Ethylbenzene

    • Product Name Ethylbenzene
    • Alias EB
    • Einecs 202-849-4
    • 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
    Specifications

    HS Code

    914291

    Cas Number 100-41-4
    Iupac Name Ethylbenzene
    Molecular Formula C8H10
    Molar Mass 106.17 g/mol
    Appearance Colorless, flammable liquid
    Odor Aromatic, gasoline-like
    Boiling Point 136.2°C
    Melting Point -94.9°C
    Density 0.867 g/cm³ (at 20°C)
    Solubility In Water 0.015 g/100 mL (at 25°C)
    Vapor Pressure 9.6 mmHg (at 25°C)
    Flash Point 15°C (closed cup)
    Autoignition Temperature 432°C
    Refractive Index 1.495 (at 20°C)
    Un Number 1175

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

    Packing & Storage
    Packing Ethylbenzene is packaged in a 5-liter amber glass bottle with a secure cap and hazard labels indicating flammability and health risks.
    Shipping Ethylbenzene should be shipped in tightly sealed, properly labeled containers, typically steel drums or approved bulk tanks. It must be transported as a flammable liquid (UN 1175) under applicable hazardous materials regulations. Keep away from heat, sparks, and open flames, and ensure proper ventilation during handling and transit.
    Storage Ethylbenzene should be stored in a cool, dry, well-ventilated area away from heat, sparks, open flames, and direct sunlight. Containers must be tightly closed and clearly labeled. Use approved, chemical-resistant storage containers, preferably made of steel or high-density polyethylene. Keep apart from oxidizing agents, acids, and halogens. Implement grounding and bonding to prevent static electricity buildup.
    Application of Ethylbenzene

    Purity 99.8%: Ethylbenzene Purity 99.8% is used in styrene monomer production, where it ensures high polymer yield and consistent product quality.

    Stability Temperature 150°C: Ethylbenzene Stability Temperature 150°C is used in industrial solvents, where it maintains integrity during high-temperature cleaning processes.

    Boiling Point 136°C: Ethylbenzene Boiling Point 136°C is used in chemical intermediate synthesis, where it provides efficient separation and recovery in distillation operations.

    Aromatic Content 100%: Ethylbenzene Aromatic Content 100% is used in laboratory reagent applications, where it offers reliable analytical performance in organic compound identification.

    Low Water Content <0.1%: Ethylbenzene Low Water Content <0.1% is used in coatings manufacturing, where it prevents unwanted side reactions and improves final product finish.

    Molecular Weight 106.17 g/mol: Ethylbenzene Molecular Weight 106.17 g/mol is used in petrochemical formulations, where it delivers predictable reactivity and process control.

    High Purity Grade: Ethylbenzene High Purity Grade is used in electronic-grade solvent applications, where it minimizes contaminants and supports sensitive device fabrication.

    Density 0.867 g/cm³: Ethylbenzene Density 0.867 g/cm³ is used in fuel additive blending, where it ensures proper volumetric calculations and homogeneous mixture properties.

    Flash Point 18°C: Ethylbenzene Flash Point 18°C is used in controlled laboratory settings, where it allows safe storage under specified environmental conditions.

    Sulfur Content <0.5 ppm: Ethylbenzene Sulfur Content <0.5 ppm is used in polymer production, where it reduces catalyst poisoning and ensures product purity.

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    Certification & Compliance
    More Introduction

    Ethylbenzene: More Than Just a Chemical

    Understanding Ethylbenzene in Today’s Industry

    Ethylbenzene stands out in the lineup of industrial chemicals for good reasons. Walking through any facility devoted to plastics or petrochemicals, you’ll find its presence driving forward a raft of processes. As someone who once spent long afternoons labeling drums and checking tank levels, I started to understand the influence of a single compound more deeply than what a chart or safety manual can show. This product often goes unnoticed by outsiders. Those on the inside know that ethylbenzene shapes the production of materials we rely on daily—from the lightweight cases of our electronics to insulation in our walls.

    If you’ve worked in manufacturing or even peeked behind the curtain at a chemical plant, the phrase “feedstock” crops up a lot. Ethylbenzene falls under this category. Think of it as a workhorse, pushing the bulk of its weight toward making styrene. Polystyrene, in turn, covers countless uses: packaging, disposable tableware, foam cups, and even the structural parts in appliances. These applications place ethylbenzene at the center of a supply chain that touches a surprising number of everyday products.

    Inside the Details: Models and Specifications

    Ethylbenzene doesn’t fit into a one-size-fits-all model. The specifications can shift based on the intended use. What I’ve observed is that high-purity ethylbenzene forms the backbone of efficient styrene production. Lighter impurities—like xylene or toluene—can quietly erode efficiency, so reaching for a product meeting a 99.8% purity standard isn’t just about meeting regulations. It’s about value and reliability. Chemists and production managers pay close attention to trace elements because even tiny unpredictabilities can cascade through a polymerization line, causing rework or rejection.

    Packaging and transport practices also set products apart. Ethylbenzene travels in sturdy, thoroughly inspected ISO tanks or specialized tankers that hold up under scrutiny. Leaks or improper sealing not only waste material, but put entire teams and surroundings at risk. Once you’ve spent an afternoon tightening a valve in the summer heat, the importance of a strong containment system isn’t abstract anymore. Each drum or tanker is marked clearly, so no one has to second guess what’s flowing into a reactor or onto a loading dock.

    Comparing Ethylbenzene to Similar Chemicals

    Lots of aromatic hydrocarbons land on a plant manager’s order sheet: toluene, xylene, benzene, and others. Each can share similar characteristics, sharing that familiar sharp, sweet odor or basic solvent abilities. Despite these overlaps, ethylbenzene carves its own niche. While benzene and toluene often serve as general-purpose solvents, ethylbenzene’s claim to fame lies almost entirely in the plastics supply chain. Its molecular structure gives it particular advantages in the downstream production of styrene.

    You’ll notice the difference in how these chemicals get handled. Benzene’s notoriety for health hazards means extra ventilation, tighter exposure limits, and more training for plant workers. Ethylbenzene’s risks call for plenty of safeguards too, but a properly run operation keeps dangers manageable. Compared to xylene, ethylbenzene’s odor lingers differently, and that detail alone can tip off a seasoned worker to a leak long before any monitor picks up a spike.

    Why Ethylbenzene Remains Essential

    Standing in a plant control room with a bank of monitors, I realized that the journey from raw material to finished goods isn’t as smooth as spreadsheets suggest. Each batch of ethylbenzene links directly to a wide range of products: high-impact polystyrene for refrigerator linings, packaging wrap at supermarkets, and thousands of foam-insulated shipping containers. Choosing high-quality ethylbenzene brings consistency. It keeps closures on soda bottles tight and strengthens the structural foam that protects electronics in transit.

    What stands out the most is the domino effect of purity. I remember a run where off-spec product made its way into a reactor, producing foams that sagged and twisted out of shape. A few days of troubleshooting later, it circled back to a missed contaminant in a shipment of ethylbenzene. These details matter not just for regulatory compliance, but for everything downstream—from plant reliability to customer satisfaction.

    Environmental and Health Considerations

    While ethylbenzene’s industrial role seems straightforward, the impact stretches into the broader world. Health and safety guidelines warn against long-term exposure, especially for those who spend years near open drums or production lines. I’ve watched safety teams train new hires to recognize the scent well before any symptoms set in. The rules call for gloves, goggles, and careful monitoring of air concentrations. These steps ensure the job gets done right without risking the future health of the workforce.

    Environmental stewardship is another growing priority. Proper capture, handling, and recycling practices cut down on loss to air and water. Over time, local regulations have tightened, driving producers to adopt closed-loop systems that drastically reduce emissions. Neighborhoods near chemical plants watch these trends closely. Years ago, a minor spill in a local river sparked a community meeting, highlighting how much vigilance matters. Producers adopted stricter training, more regular equipment checks, and better emergency response as a result.

    Ethylbenzene in Research and Innovation

    Researchers continually hunt for more sustainable methods to produce and manage ethylbenzene. My time shadowing a lab chemist showed just how much energy and innovation channels into every kilogram produced. Some work focuses on catalysts that cut energy needs and byproduct formation, making the overall process cleaner. Green chemistry initiatives look for feedstocks that come from renewable sources, not just fossil fuels.

    The push for closed-loop recycling—converting waste plastics back into usable monomers—holds promise for reducing the environmental footprint of both ethylbenzene and its derivatives. These advances require more than just technical know-how; they rely on cooperation across the supply chain. Producers, researchers, manufacturers, and even the local community all weigh in on the direction of future development.

    Beyond the Lab: Real-World Usage of Ethylbenzene

    In the trenches of manufacturing, you see ethylbenzene not as a number in an invoice, but as a lynchpin that keeps production lines humming. Its most significant job is as a precursor to styrene monomer. Synthetic rubber used in car tires, electrical insulation, and even medical devices starts the journey with ethylbenzene. Each day, forklifts shuttle containers of the compound to mixing points, feeding the endless appetite of reactors downstream.

    On occasion, it shows up as a solvent in paint thinners and inks, though substitutes like toluene sometimes take its place depending on price and availability. Those who work with printing or coatings appreciate its ability to dissolve resins efficiently, giving the final product its gloss and durability. But its role there remains secondary to the high-volume demands of plastic manufacturing.

    The Market Forces Shaping Ethylbenzene’s Role

    Like many petrochemical products, the price and supply of ethylbenzene swing with global oil markets. During periods of high crude prices, downstream costs rise, and manufacturers feel the pinch. Some years ago, a price spike forced several small-scale producers in our region to scale back. That shock rippled out: plastic part makers had to raise their bids, and shipping companies negotiated new contracts. Every link in the chain reexamined its options, from raw material inventory to product redesigns that use less styrene.

    Geopolitical events, natural disasters impacting refineries, and regulatory changes all feed into this complex web. Seen from inside, planning for ethylbenzene supply isn’t guesswork; it’s a calculated effort matching forecasts to sourcing contracts and transportation logistics. In better years, surplus supply helps smaller players secure reliable access, but the market rarely stays stable for long.

    Handling and Storage: Lessons from the Floor

    Storing ethylbenzene isn’t just a technical formality; it shapes the safety and efficiency of operations. Maintainers run regular sweeps to inspect valves and gaskets, looking for that telltale smell that means a small leak is starting. Years in the industry taught me that preventative checks save headaches and injuries. Storage tanks must resist corrosion, stand up to temperature shifts, and clearly separate ethylbenzene from incompatible substances like acids or strong oxidizers.

    Spill drills, eye wash stations, and mask fitting tests sound routine on a checklist. But on a hectic shift, with alarms beeping and deliveries stacking up, those practices pay off. Investing in solid maintenance schedules and staff training stops minor lapses from turning into disasters. On occasion, an unexpected truck arrival with a questionable container gets flagged, and the team’s vigilance keeps product integrity intact.

    Regulatory Realities and Compliance

    Governments worldwide have their eyes on chemicals like ethylbenzene, especially when it comes to air and water quality. Those in production know the value of staying on the right side of environmental agencies. Violations can lead to fines, shutdowns, or worse, endanger local communities’ trust. I’ve watched auditors pace the aisles, check documentation, and take samples. It’s a reminder that compliance isn’t just paperwork—it’s woven into the daily routine.

    Stringent thresholds drive innovation in emission controls—like carbon filters, vapor recovery units, or on-site incineration. Over time, these upgrades cost less than dealing with incidents. A well-run facility integrates compliance into equipment upgrades and staff training, making sure new hires understand the consequences of missed steps. Some of the strictest oversight comes in the handling of storage tanks, wastewater discharge, and workplace air monitoring.

    Challenges in a Shifting Landscape

    While ethylbenzene remains a workhorse, the sector faces new challenges every year. Manufacturers balance the rise of alternative materials, stricter regulations, and the demand for lower emissions. Years ago, a shift toward bio-based styrene alternatives made headlines, prompting both skepticism and hope. The reality is more gradual. Producers keep finding ways to stretch efficiencies, cut waste, and reuse byproducts rather than discarding them.

    Transport infrastructure counts too. Smooth delivery relies on port facilities, rail, and road networks staying in good repair. Delays from storms or traffic add real costs. Once, a late shipment threw our whole production schedule off, forcing overtime and interrupting downstream commitments. Companies now invest in better tracking and redundant delivery routes, sharing updates in real-time so customers stay in the loop.

    Potential Solutions and the Path Forward

    As the world faces mounting pressure to cut carbon footprints, ethylbenzene producers have to face tough questions. Shifting energy sources, updating older plants with cleaner technology, and exploring new chemistries all factor into future plans. Some firms tackle these issues by tightening up on-site recycling, reusing solvents that once would have left the facility as waste. Others collaborate more closely with suppliers to source clean feedstock or invest in new production facilities closer to end users, cutting down on transport needs.

    Developing new catalysts features heavily in industry journals and conference halls. These improved formulas reduce byproduct formation, save on energy costs, and open the door to milder reaction conditions that mean less risk for workers and fewer emissions. Investments in staff education keep the next generation ready for the regulatory and technological landscape ahead. I’ve seen the best results in teams that promote open communication—mistakes surface early, learning spreads fast, and incremental improvements stick.

    Why Ethylbenzene Stays Relevant

    With all the talk about innovation, it’s easy to forget the vital role played by legacy products like ethylbenzene. In practice, most alternatives still cost more or can’t deliver the performance manufacturers expect. Decades of steady improvement have carved out a reliable niche, where every spec, shipment, and safety step matters. The future likely holds more changes, but as long as people need strong, lightweight, and affordable plastics, ethylbenzene will keep its place as a behind-the-scenes powerhouse.

    Personal experience taught me that no product lives in isolation. Ethylbenzene’s story threads through supply chains, logistics, safety meetings, and late-night production calls. Its impact shows up in the durability of a new appliance, the low weight of shipping containers, or even the community initiatives sparked by tighter safety rules. Continued focus on quality, transparency, and innovation sets the foundation for responsible growth.

    Final Thoughts: The Broader Picture

    Looking back, ethylbenzene stands as both a symbol of industrial progress and a window into the chemical industry’s daily reality. Those who work with it know the nuances beyond what statistics or spec sheets offer. Every delivery checked, every batch tested, every alarm investigated tells the real story—one where vigilance and adaptability keep production moving and communities safe. The future remains in the details, whether that means refining a formula or investing in smarter, safer ways to deliver value for years to come.