|
HS Code |
174567 |
| Name | Allylbenzene |
| Chemical Formula | C9H10 |
| Appearance | Colorless to pale yellow liquid |
| Melting Point Celsius | -80 |
| Solubility In Water | Insoluble |
| Cas Number | 300-57-2 |
| Pubchem Cid | 8858 |
| Odor | Sweet, floral |
As an accredited Allylbenzene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Allylbenzene, 500 mL, stored in an amber glass bottle with a secure screw cap and safety label showing hazard warnings. |
| Shipping | Allylbenzene should be shipped in tightly sealed containers, away from heat, sparks, or open flames, as it is flammable. It must be labeled according to hazardous material regulations and protected from physical damage. Transport should comply with local, national, and international regulations for hazardous chemicals to prevent leaks or spills. |
| Storage | Allylbenzene should be stored in a tightly sealed container in a cool, dry, well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep it separate from strong oxidizing agents, acids, and bases. Store at room temperature, and ensure proper labeling. Use appropriate safety measures to prevent inhalation, ingestion, or skin contact due to its flammable and irritant properties. |
Competitive Allylbenzene prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
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Tel: +8615371019725
Email: admin@sinochem-nanjing.com
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Manufacturing allylbenzene is a process that calls for consistent oversight, practical knowledge, and an unbroken focus on purity. At our chemical plant, we’ve spent years handling this compound and listening to the technical, economic, and environmental factors that shape its place in the market. Our product, Allylbenzene (CAS 300-46-1), stands out for its stable aromatic profile and utility as a building block in flavors, fragrances, and fine chemicals. Its clear-to-light yellow liquid form reflects careful distillation and rigorous quality control well beyond what is often found among traders or secondary sources. That means buyers get a material that supports predictable reactions in their own operations, cutting down on costly rework and batch variation.
We manufacture allylbenzene in bulk, with a typical assay of >99% as measured by gas chromatography. Moisture sits below 0.1%. Each batch rolls off our line after extensive quality checks. Purity always matters, but smooth logistics and reliable capacity mean customers rarely face outages or lost time caused by off-spec shipments. Our model differs from so-called “lab-grade” or “high-purity” marketers by emphasizing lot-to-lot reproducibility—a necessity for downstream synthesis, especially when customers use automated dosing systems or face tough regulatory reviews. We have designed our process to sidestep the trace contaminants common in smaller, less-controlled operations. These details rarely show up in glossy product sheets but shape outcomes in real plants and labs.
Demand for allylbenzene comes from practical needs rather than marketing hype. The compound’s core structure features a benzene ring with an attached allyl group, forming a raw material that can readily take part in Friedel-Crafts alkylations, epoxidations, and oxidative coupling. Our long-term customers rely on this reactivity to synthesize flavor compounds like eugenol, safrole, or isosafrole. Others value its role in creating intermediates for pharmaceuticals or agricultural chemicals, where even modest deviations in impurity profiles can set off regulatory headaches. The best results require more than just high numbers on a spec sheet: uniform distillation, managed trace-metal content, and absence of high-boiling tars drive consistency in downstream yields.
Producing allylbenzene in-house has taught us a few hard lessons about purity and practicality. The raw materials—benzene and allyl chloride, most commonly—call for careful sourcing and monitored storage. Poor raw input throws off reaction curves and increases the odds of side-products, so every truck and drum gets checked for water content, sulfur, and chlorinated byproducts before unloading. Years ago, we saw firsthand how moisture spikes or upstream contamination led to unscheduled distillation downtime and higher-than-expected waste. After several trial-and-error cycles, we invested in online detection and shorter pipework runs to cut the risk of contamination blooms. Today, each reactor cycle targets high selectivity, not just yield, to keep waste handling manageable and avoid shutdowns forced by fouled columns.
There’s a difference between batch-to-batch uniformity and simply hitting a “typical” purity metric. Regular traders sometimes blend different lots, leaving unpredictable tails in purity and color. This leaves end-users guessing about compatibility with catalysts or extractants. From our side, every tank is held for confirmation checks before it ships. Our in-house panel tracks peroxide value, refractive index, color, and trace halides—metrics needed to keep polymerization and shelf-life in line. We keep data records going back years and can often trace any off-spec sample back to the day and hour a deviation appeared in the plant.
We watched the market for allylbenzene change as food safety and product traceability drew more attention. Buyers in Europe, North America, and parts of Asia now need to document each reagent batch back to the source—especially for products bound for consumer fragrances and flavors. These rules drove us to upgrade traceability protocols, not because it sounded good but because skipping these steps meant lost contracts. Our experience convinced us that investing in automated sample archiving and batch record integration does more than satisfy auditors: it makes it easier to find and fix problems before finished products get delayed or recalled.
Some buyers ask about the trade-offs between allylbenzene and similar aromatic intermediates like benzyl chloride, cinnamyl alcohol, or styrene. In direct plant experience, only allylbenzene gives the combination of activated double bond and aromatic stability needed for complex organic synthesis. Cinnamyl alcohol offers reactivity through the hydroxyl group but lacks the thermal stability needed for some polymerization schemes. Benzyl chloride is easier to alkylate but drives up corrosivity and regulatory overhead, especially in pharmaceutical and flavor segments. Styrene brings an activated vinyl group but misses out on the ring reactivity and selectivity needed in fine chemical routes. This difference isn’t about “better or worse”—it’s about what works for the chemistry upstream and downstream. Our job, as always, is to keep the structural integrity and chemical consistency of allylbenzene at the forefront so customers don’t have to second-guess their feedstocks.
Scaling production beyond the batch scale introduced a host of unexpected challenges. Making ten kilograms in a kettle bears little resemblance to tonnage output on a continuous line. Temperature gradients, internal pipe fouling, and unplanned shutdowns can threaten not just batch quality but operator safety. Small temperature excursions during the allylation stage once led us to a sticky, dark-colored product that took extra passes just to meet the base color spec. Taking the time to automate heating and install real-time process analytics paid off, not only in better output but in operator safety and maintenance overhead.
The supply chain for allylbenzene also faces pressure from international shipping rules, especially regarding hazardous chemical classification, port handling, and customs documentation. Those handling finished goods often overlook this step until a shipment sits at a customs yard for days. We learned, through more delays than we care to remember, that pre-clearing documentation and proactive dialogue with regulators shaves weeks off delivery windows. Today, we work directly with shipping agents trained in hazardous cargo so customers avoid unexpected stoppages.
The world now expects responsible production practices, even for specialty intermediates like allylbenzene. Our shop has felt this pressure both from legislators and from customers who track every input’s carbon footprint. Volatile organic compound emissions became a flashpoint a few years ago when new air permits rolled out. Scrubbing and condensing vented vapors is not just a regulatory box to tick—it has a direct impact on neighborhood air quality and worker safety. Our process now captures and reuses much of the process vapor, returning it to the distillation line for higher overall yields. It’s not perfect, but the reduction in solvent losses and improved air quality around the plant have justified the engineering cost.
Wastewater poses its own problems, especially with wash-down cycles and unplanned batch drains. We switched to a closed-loop water recovery setup after watching wastewater costs climb and compliance margins shrink. Every liter recycled saves both money and environmental impact. We learned the value of separating organic and inorganic streams early, before reaching the main treatment header—it avoids cross-contamination and brings down treatment time and cost. None of these changes would have happened if we waited for regulators to force our hand. Early adoption pays off with smoother planning and stronger customer confidence at audits.
Customers switching suppliers often talk about “the same” CAS number or specification. In the real world, these numbers hide a wide spread of differences that only surface after repeated use. Our plant’s strict source control for raw benzene and allyl chloride strips out known ring-halogenated and sulfurous byproducts that linger in material from some secondary traders. Those who buy from fragmented supply chains wind up troubleshooting unknown boiling points, gum formation, or runaway polymerization not flagged on a standard spec sheet.
We’ve seen quality slip elsewhere when traders blend partial lots or repackage bulk tanks. Extended storage and shipment through multiple hands creates a knock-on effect, like elevated peroxide levels or bacterial load. After repeated customer feedback and batch failure analysis, we committed to just-in-time production and minimized storage time to preserve lowest-possible impurity levels. Our focus on plant-direct shipping closes most of the quality gap that shows up when product sits for weeks or is exposed to fluctuating temperatures and light.
Every ton of allylbenzene that leaves our facility comes with a complete certificate of analysis and supporting documentation, not as marketing fluff but as an operating necessity. We retain samples from every lot for post-shipment troubleshooting. Our sales and technical teams answer questions with direct analytical data, guiding researchers and process engineers who probe for ppm-level impurities or need confirmation on physical properties for emissions reporting. This level of transparency only comes from making and testing the product every day instead of buying and reselling under a third-party label.
We welcome requests for advanced trace analyses, including GC-MS impurity mapping and residual solvent checks. These extras might seem like overkill until a customer faces a failed batch or unscheduled downtime because of unknown peaks in their chromatography. Time and again, we see that sharing this load with our clients—rather than hiding behind vague “meets standard” language—builds lasting partnerships and prevents costly surprises.
Allylbenzene is sensitive to oxygen and light during long-term storage, especially in open-head drums. Over months, auto-oxidation produces peroxides that can cause exotherms in downstream chemistry. We recommend nitrogen blanketing on storage tanks and avoiding clear or semi-transparent packaging, a practice learned from warehouse stints where opened drums stored near sunlight led to sticky residues and container deformation. Where customers lack inert storage infrastructure, we suggest shorter on-site holding periods and direct-to-line transfers.
Handling calls for PPE and air monitoring, as both the parent compound and byproducts can irritate eyes and lungs. Training staff to respect both the process and the product forms the backbone of safe, reliable operation. In our plant, we conduct routine drills and hold update briefings on best practices, especially after any incident, no matter how minor. This sort of practical education keeps operators sharp and quality consistent day to day.
It’s easy to see chemicals as mere commodities, especially in a landscape crowded with interchangeable grades and anonymous invoices. Our own experience taught us to invest in the people who know the material best: the operators who run the reactors, the lab staff who chart every fluctuation, and the logistics people who flag oddities before they snowball into problems. This know-how, gathered from years at the plant, outpaces marketing brochures and generic claims. We’ve solved tough downstream challenges by relying on conversations with direct users, not just standard protocols.
Allylbenzene’s characteristics, quality, and performance reflect every improvement, every correction, and every hour spent monitoring a distillation run. Long-term users notice the difference—a sharper fragrance note, a cleaner fraction, a smoother batch sequence. Satisfying these buyers means delivering a product shaped by deep process experience and a real commitment to improvement.
Our approach to allylbenzene centers on trust earned through performance, not promises. Delivering on that commitment launches with careful raw material handling, carries through process control, and finishes with consistent delivery and open technical support. We don’t present our product as category-defining or flawless. Instead, we believe chemicals should work as expected, batch after batch, without drama—so our clients can focus on making their own products stand out.
We never stop pushing for advancement in our making of allylbenzene. The demands of downstream processes, tighter regulations, and global supply chain unpredictability push us to keep refining techniques. Process automation and digital record-keeping keep us nimble under changing safety and compliance standards. A few years ago, a major customer flagged a new restriction on trace halogen content. We adjusted our upstream controls, enhancing both the process and downstream customer relationships.
We participate in technical exchanges, learning from industry peers facing similar challenges. Shorter reaction cycles, inline detection, and improved energy recovery now help us hold the line on both cost and impact. Our philosophy remains practical: measure what matters, intervene where it counts, and keep lines open for feedback from the people who use our chemical every day.
Allylbenzene, in our hands, stands as more than a commodity. It brings together science, experience, and a supply-chain ethic shaped by years of sweaty work and face-to-face problem-solving. Buyers expect reliability, and that only comes from a manufacturing partner willing to own every step of the process. This is how we approach chemical production—not as a race to the lowest price, but as a dependable link in our customers’ own production journeys.