|
HS Code |
829629 |
| Chemical Name | Allyltrichlorosilane |
| Synonyms | Trichloroallylsilane |
| Molecular Formula | C3H5Cl3Si |
| Molecular Weight | 191.53 g/mol |
| Cas Number | 1070-70-8 |
| Appearance | Clear to light yellow liquid |
| Boiling Point | 110-112°C (230-233°F) |
| Density | 1.232 g/mL at 25°C |
| Flash Point | 45°C (113°F) |
| Solubility | Decomposes in water |
| Refractive Index | 1.457-1.461 |
| Stability | Stabilized with copper or other stabilizer |
As an accredited Allyltrichlorosilane [Stabilized] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Allyltrichlorosilane [Stabilized] is supplied in a 500 mL amber glass bottle with a secure PTFE-lined cap, labeled for hazardous material. |
| Shipping | Allyltrichlorosilane [Stabilized] must be shipped in tightly sealed containers, away from moisture and incompatible substances. Classified as a hazardous material (UN 2987), it is typically transported under the regulations for flammable liquids and corrosive substances. Proper labeling, documentation, and use of protective packaging are essential for safe shipping. |
| Storage | Allyltrichlorosilane [Stabilized] should be stored in a cool, dry, well-ventilated area away from water, moisture, and incompatible substances such as strong oxidizers. Keep the container tightly sealed and protected from physical damage. Store under inert atmosphere if possible. Segregate from acids and bases. Use proper personal protective equipment when handling, and ensure emergency procedures are in place. |
Applications of Allyltrichlorosilane [Stabilized] in Industrial ManufacturingAs a direct manufacturer specializing in silicon-based intermediates, we supply Allyltrichlorosilane [Stabilized] for diverse chemical sectors. Below we present key downstream applications, detailing sector-specific compliance, dosing, processing, and end-use product integration. 1. Silicone Resin Synthesis for High-Performance CoatingsLeading coating plants employ Allyltrichlorosilane [Stabilized] as a reactive monomer during silicone resin polymerization. It provides controlled crosslinking sites for thermal and chemical resistance in protective coatings. Operators introduce the silane in the initial charge, allowing it to react with silanol-containing intermediates under nitrogen at 60–120°C, ensuring robust siloxane backbone formation. The process demands stringent HCl offgas control and moisture exclusion to prevent gelation. Finished resins target anti-corrosive and high-temperature resistant industrial coatings on metal, glass, and ceramic substrates. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Surface Treatment Agent in Glass Fiber ManufacturingTechnical textile plants use Allyltrichlorosilane [Stabilized] for modifying glass fiber surfaces, improving resin wet-out and bonding. The silane acts as a chemically active coupling agent in the fiber sizing bath. Plant technicians hydrolyze the silane under controlled pH and temperature before applying it over continuous strands via immersion or spray. The treated fibers exhibit enhanced compatibility with epoxy, polyester, and vinyl ester resins, promoting high mechanical and interfacial strength in end composites. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Intermediate for Silane Coupling Agent SynthesisOrganosilicon chemical plants utilize Allyltrichlorosilane [Stabilized] as a base intermediate for synthesizing a series of functional silane coupling agents. Nucleophilic substitution reactions with controlled amines or alcohols take place in glass-lined reactors, producing alkoxy- or amino-functional silanes tailored to specific downstream polymer and rubber applications. Operations require precision metering, strict feed rates, and temperature profiles for desired substitution without premature hydrolysis or side-product formation. These downstream silanes act as adhesion promoters and crosslinkers in plastics, adhesives, and sealants. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Modification Additive in Siloxane Elastomer ProductionAdvanced elastomer manufacturers dose Allyltrichlorosilane [Stabilized] as a chain modifier during siloxane polymer synthesis. In high-shear, closed reactors, chemists introduce the material for controlled terminal functionalization, increasing crosslink site density and customizing mechanical properties like compression set, rebound, and oil resistance. This ingredient ensures precise adjustment in room-temperature vulcanizing (RTV) silicone and liquid silicone rubber (LSR) formulations. Strict monitoring guarantees residual silane and chloride content within regulated thresholds, critical to both safety and performance in finished elastomers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Allyltrichlorosilane [Stabilized] prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Long days in the silane unit have taught us plenty about what a difference good stabilization makes, especially with allyltrichlorosilane. Too many stories start with a leak or a cloud, but with patience and real attention to the chemistry, you can turn a volatile situation into reliable workhorse performance in the plant. Our drive doesn't come from marketing bluster or committee room brainstorms, but from nitrile gloves, reaction kettles, and the blue fluorescence of a well-calibrated detector.
Down on the line, each batch of allyltrichlorosilane starts with allyl chloride, trichlorosilane and proprietary stabilizers. Temperatures run low enough to manage the exotherm but high enough to keep productivity steady. Picture pipes as thick as your arm, each carrying its part of the synthesis puzzle. We keep the process closed off from air and moisture wherever possible. Stability remains a constant concern from the minute reactants go in, past final filtration and gas blanketing, right through to drum-filling.
Specs tell you that allyltrichlorosilane stabilized models often measure more than 99% active content. We keep residual allyl chloride in check down under 0.5%. We document chloride levels down to parts per million for those who track every last molecule. The color runs clear and water-white when handled right, though extended storage or poor tank hygiene can invite trouble. Most drums roll out at liquid densities right around 1.36 g/cm³, checked at each run.
Allyltrichlorosilane can polymerize or hydrolyze if left unprotected, so every tank at our site gets outfitted with gas guards and vapor recirculation traps. We draw from a couple of generations of know-how on how water and basic vapor can sneak into pipelines, so the stabilizer package we use actively scavenges traces before they trigger chain reactions. The stabilized format keeps runaway events off the hazard log and saves valuable product from premature losses.
Our stabilization system doesn’t rely on guesswork. We use titration and GC analysis to measure where the stabilizer lands in the finished drum, and recalibrate for each lot. Anyone who’s watched a valve freeze up or cleaned polymer slime from a flange knows the value of putting care upfront in the manufacturing process, not just shipping chemicals and leaving headaches to someone else down the line.
There’s no shortage of options in the silane aisle, but allyltrichlorosilane offers a unique blend of reactivity and selectivity that catches the eye of chemists focused on silicon-carbon bonds. Compare it to trimethylchlorosilane or even vinyltrichlorosilane—allyl reactivity can't be matched for certain industrial syntheses. In uncatalyzed systems, allyltrichlorosilane moves quickly with nucleophiles, but you can't keep it on hand for long unless it’s managed correctly. That’s where stabilization steps in as a necessity, not a luxury.
Our team confronts the limits of this chemistry in the tank farm: unstabilized allyltrichlorosilane tends to foul lines, pressure up tanks, or even start creeping purple if left near sunlight or heat. The stabilized grade avoids these headaches, turning a potential hazard into a manageable and controlled reagent, fit for storage and transport.
Hard experience has shown that stabilized allyltrichlorosilane lets us pack higher active contents per drum and cut overall waste compared to non-stabilized lots. Any user who’s seen an unplanned shutdown or sudden product loss understands the frustration and cost of skipping this essential step. Over the years, cleanup costs and lost product are always more expensive than the price of stabilization upfront.
Lab benches don't always reflect the grit and routine of a production site. Allyltrichlorosilane [stabilized] works in both worlds. Silicones and surface modification chemistry rely on the unique nature of the allyl group—carbon-carbon bonds that stick, but with a silicon lever you can pull for further transformation. We’ve shipped this grade to facilities working on adhesives, protective coatings, and cross-coupling reactions. In silylation of alcohols or for custom siloxane work, our partners remind us that stabilized allyltrichlorosilane stands out for its handling safety and shelf life, not just reactivity.
Specialty glass and hi-tech ceramics plant managers give us direct feedback: without the stabilized form, downtime rises and the danger increases. One memory that stands out features a customer who tried generic, unstable material and ended up with a frozen valve and useless byproduct. Ever since, they stick with stabilized stocks, and plant incidents dropped.
We have watched as stabilized allyltrichlorosilane unlocked fresh pathways for laboratory-scale synthesis too, with less waste and more reliability for subsequent purification and isolation steps. Less time spent troubleshooting, more time actually building new molecules—these lessons come from joints, pumps, and the inevitable smell that wafts up if a system’s not airtight.
Chemical differences aren't about hype—they’re about practical tasks like loading, shipping, and unloading without drama. Allyltrichlorosilane [stabilized] compares favorably to trichlorosilane or methyltrichlorosilane for functionalization. If you’ve ever tried to store unstabilized trichlorosilane with ambient heat, you know the headaches: hydrolysis, pressure spikes, and solid material that gums up the works.
We engineer shipping containers to withstand potential pressure build, but stabilized forms relax that requirement, making for easier storage and logistics. Our on-site engineering records show far fewer incident reports when using the stabilized product compared to generic, unstabilized alternatives. Plant records, not just sales brochures, back this up.
Physically, stabilized allyltrichlorosilane flashes off less aggressively, so drums don’t hiss when cracked open. It hangs together better across different temperature shifts—hot summers and cold winters without shifting to sludge or breaking seals from inside-out pressure. This matters for those of us who have early mornings spent checking level gauges or cleaning up after leaks.
Our shipping department doesn't take chances. Every stabilized batch carries out extensive leak checks and sits under nitrogen cover from tank to drum to customer site. We specify lined steel drums, never plastic, after learning the hard way how chlorosilanes chew through organic seals. Every worker uses air-fed hoods and nitrile gloves, not just goggles, thanks to decades of safety records.
Our in-house logistics crew keeps the product between 10°C and 30°C from plant to gate. Extended exposure to sunlight spells trouble, so we take pains to minimize drum dwell outside the warehouse. Engineers check each transfer for signs of hydrolysis—froth, heat spots, or discoloration. We keep samples from every lot for traceability.
We insist on drum venting and remote connections, never direct top-off fills, because close quarters and unstable silanes don’t mix. Long after the sale, maintenance crews trade stories: stabilized allyltrichlorosilane keeps their systems running longer, their PPE in better shape, and their workflow steady. The value doesn’t come from spec sheets, but from trust earned between users and the line workers making each batch.
Running stabilized allyltrichlorosilane means threading the needle between enough stabilization for safety and not so much that you throttle reactivity. Stabilizer levels get checked, and rechecked: too little, and the whole system can go out of control; too much, and end-user performance drops off.
We’ve had long debates between our floor operators and lab techs about just how much stabilizer to carry per drum. Sometimes the plant will see a higher than normal trace of hydrolyzable chloride and calm nerves with a second filtration. At other times, a slight swing in allyl chloride content leads us to add an extra purging step. There’s no “set it and forget it.”
Batch variability haunts anyone working with these reagents. No matter how tightly you control inputs, unexpected spikes or dips show up in the logs. Our solution isn’t to hide bad data—we keep it all and tune the next run. We’ve built a backlog of case notes that helps dial in each run, with records stretching back decades.
Manufacturing allyltrichlorosilane stabilized to this level calls for more than just raw materials—it demands acute attention to waste handling and emissions. Chlorinated byproducts mean extra attention with our waste neutralization units. Hydrolysis gas never goes untreated; it hits scrubbers before leaving the building.
We recycle as much residual silane as practical. Every time a pumpout or drum cleaning takes place, vapor traps collect what can be reclaimed and reblended on the next go-round. This isn’t about “green chemistry slogans”, but about plant balance sheets and community safety meetings.
Nothing leaves the site unless it passes tests for free acid, heavy metals, or unchecked stabilizer. Off-grade material doesn’t make its way into the mainstream batch—it rolls into dedicated re-processing, and we keep audited logs of everything that leaves our lot. Inspectors have walked the site and checked our data enough times to know this isn’t just talk.
Customers and co-workers teach us something new with almost every shipment. We’ve listened to researchers working at the edge of materials science: their results depend on tight control over functional groups, and one contaminated drum can set them back weeks. Feedback from plant managers stresses handling, but their wish lists always put safety and reliability above speculative chemistry.
Tooling up for a material like stabilized allyltrichlorosilane means investing in drum hardware, vapor recovery, and real training. We work with end-users to lay out best practices. Quick fixes rarely pan out. Hard-earned habits—routine PPE checks, tank monitoring, weekly safety drills—make the difference between smooth operations and downtime.
Colleagues in the maintenance shop sometimes grumble about the time spent on silane lines, but over the years they tell us that the investment pays for itself. Once, years back, a shortcut led to ground contamination that took months to resolve. Since shifting fully to stabilized material and tight monitoring, those days belong to the past.
Anyone promising trouble-free handling without referencing stabilization either hasn't worked a full shift around allyltrichlorosilane or is selling something they don’t understand. The stabilized form is not only safer; it’s a real solution to the daily hazards and disruptions that plague calibration-sensitive production or research. As more customers move toward higher technical standards and stricter audits, stabilized allyltrichlorosilane offers an important step forward.
From the control room all the way to the dock, our workers know the score: the chemistry doesn’t forgive, and neither do regulators, customers or mother nature. We keep learning. Our stabilized product stands as proof of what it takes to keep the chemistry—and the people—running safely and profitably.
We don’t just sell molecules. On more than one occasion, our technical crew has spent hours with customer teams troubleshooting equipment, analyzing residue, or working through the best way to redistill an off-spec tank. Stabilized allyltrichlorosilane isn’t just another SKU; it lives at the intersection of reliable supply and practical chemistry.
Close relationships with our carriers, downstream handlers, and safety teams mean faster response times and fewer mix-ups at the dock. Our records reflect a downward trend in shelf-life-related complaints since committing to full stabilization technology. Customers making the shift away from unstabilized stocks report higher plant uptime, fewer incidents, and less wasted product—hard numbers, not just anecdotes.
Experience teaches us that the difference really shows up not in the lab, but on the plant floor: lower reactivity risk, longer working time windows, and fewer emergency shutdowns.
Handling allyltrichlorosilane without proper stabilization is a bet against experience. Mistakes at scale cost thousands—sometimes more—and leave reputational marks that outlast any quick fix. Our team’s commitment goes past specifications and into everyday decision-making: valve maintenance, drum selection, transfer line audits, and an open ear for supplier and customer feedback.
Modern chemical plants don’t run on luck or theory. Each team member absorbs the lessons that come from close calls and near-misses. Stabilized allyltrichlorosilane makes it easier to run tight operations, and every drum that leaves our site carries not only the chemistry but a track record earned on real plant floors.
There’s nothing abstract about risk. Each leaked drum or pressured line means costs, interruptions, and potential hazards for infrastructure and personnel. Over time, we've learned that stability isn’t just a technical goal—it’s a necessity built into every successful run.
We’ve walked through more than a few plants. We’ve followed up after storms and power outages and have rebuilt drum bunkers after accidents—lessons written in steel and hard hats, not memos. Moving forward, stabilized allyltrichlorosilane drives higher standards across the sector and shows what’s possible when manufacturers prioritize experience, attention, and customer engagement.
There’s never a shortcut for testing new stabilization systems during the pilot phase; we’ve run trials under every imaginable scenario. Each run teaches us something new to strengthen the next batch. Plant safety audits and customer feedback loops improve the result for all involved.
Manufacturing this grade always begins with chemistry but succeeds with the wisdom built from hard-earned results. We listen, adapt, and aim to make each lot safer, more reliable, and better tailored for actual plant conditions. Stabilized allyltrichlorosilane wasn’t invented overnight, and neither was the expertise behind it—each drum shipped is a chapter in that ongoing story.