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HS Code |
587395 |
| Chemical Name | Phenylacetyl chloride |
| Chemical Formula | C8H7ClO |
| Cas Number | 103-80-0 |
| Molecular Weight | 154.60 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 232-234 °C |
| Melting Point | -20 °C |
| Density | 1.182 g/cm3 at 20 °C |
| Solubility In Water | Reacts with water |
| Refractive Index | 1.555 at 20 °C |
| Vapor Pressure | 0.15 mmHg at 25 °C |
| Flash Point | 110 °C |
| Odor | Pungent, strong odor |
| Storage Temperature | Store at 2-8 °C |
| Un Number | 2502 |
As an accredited Phenylacetyl Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phenylacetyl Chloride, 500 mL, packaged in an amber glass bottle with secure screw cap, labeled with hazard and handling information. |
| Shipping | Phenylacetyl chloride is shipped as a hazardous material under strict regulations. It must be packed in airtight, corrosion-resistant containers, labeled with appropriate hazard warnings. Transport is usually by road or sea in compliance with international standards, such as UN 2502. Protective measures are essential to prevent leaks, exposure, and environmental contamination. |
| Storage | Phenylacetyl chloride should be stored in a cool, dry, well-ventilated area away from heat, ignition sources, and direct sunlight. Keep the container tightly closed and protected from moisture, as the chemical reacts with water, releasing toxic gases. Store separately from acids, bases, and alcohols to prevent hazardous reactions. Use corrosion-resistant containers and clearly label all storage vessels. |
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Purity 99%: Phenylacetyl Chloride with purity 99% is used in pharmaceutical intermediate synthesis, where it ensures high-yield production and minimal byproduct formation. Stability Temperature 25°C: Phenylacetyl Chloride with stability at 25°C is used in storage and bulk transport applications, where it maintains chemical integrity and reduces degradation risk. Molecular Weight 154.57 g/mol: Phenylacetyl Chloride of molecular weight 154.57 g/mol is used in organic synthesis reactions, where it contributes to predictable stoichiometry and reaction control. Low Water Content <0.1%: Phenylacetyl Chloride with low water content less than 0.1% is used in acylation processes, where it prevents hydrolysis and maximizes acylation efficiency. Colorless Grade: Phenylacetyl Chloride of colorless grade is used in fine chemical manufacturing, where it ensures product purity and meets stringent quality standards. Density 1.18 g/cm³: Phenylacetyl Chloride with density 1.18 g/cm³ is used in automated dosing systems, where it allows for precise volumetric addition and process reproducibility. Boiling Point 233°C: Phenylacetyl Chloride with a boiling point of 233°C is used in high-temperature reaction conditions, where it offers thermal stability and reduced volatility losses. Acid Chloride Functionality: Phenylacetyl Chloride with active acid chloride functionality is used in peptide coupling, where it provides efficient and rapid acylation of amine groups. |
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Years in the chemical industry have taught us that trust grows out of complicated, hands-on work—batch after batch, year after year. We manufacture phenylacetyl chloride because it solves real problems for real chemists. Every detail, from the purity of the raw benzyl chloride to refining the distillation process, shows up in the final quality of the bottle you use. Over time, our team has learned what pharmaceutical chemists look for, what fragrance makers complain about, and what environmental auditors watch. Every run through the reactors and separators tells us what can go wrong and how to prevent it next time.
Raw materials affect everything. We never take shortcuts: precise control over moisture and acidity along the entire line means tight, predictable specs—for us, these aren’t abstract ideals, these are things we check every shift. Our current model for phenylacetyl chloride consistently shows purity above 99.5% by GC. Inside our plant, we work hard to keep color and acidity within a narrow range, because variation leads to headaches down the line for everyone.
Every drum comes with a consistency you can see right away: colorless to faintly pale yellow, clear, and free from suspended material. Chemists who switch to our supply find fewer unexplained artifacts in synthesis. What does this mean for end users? Clean conversions, fewer side-reactions, less time lost to purification steps. An experienced manufacturer knows: product specs have to be more than a paragraph on a data sheet—they’re a result of constant small adjustments and attention to details that don’t make it onto sales brochures.
People sometimes talk abstractly about intermediates and reagents, but for us, these are real molecular pieces in thousands of reaction pathways. This chemical shows up everywhere from the first step of penicillin side-chain assembly, to custom fragrances in luxury markets, to specialty polymers experiments in research labs. The majority of our annual production flows to pharmaceutical manufacturing, where one crooked batch can mean days of failed work for teams down the line.
Phenylacetyl chloride holds a particular place in building amides and esters, especially where selectivity matters—subtle shifts in residual acidity or trace impurities can send reactions sideways. We get feedback from medicinal synthesis groups that reaction yields stabilize and the need for post-purification falls after switching to our lots. Every order we fill stands as evidence for the work our QC team puts in.
Plenty of technical sheets warn about corrosive fumes and skin hazards. You won’t hear us downplay this stuff—everyone at the plant handles phenylacetyl chloride with respect. Chlorinated aromatic acyl chlorides do not tolerate carelessness: you need proper PPE and you need it at all stages. In our shop, every worker undergoes hands-on training with the actual drums and lines, not just classroom video modules.
Trace atmospheric moisture causes instant hydrolysis and forms phenylacetic acid and HCl. This isn’t just a safety footnote; it directly impacts usability in high-precision synthesis since side-products accumulate if even slight water contamination creeps in. That’s why our QC logs record water content and our shipping protocols focus on airtight seals, dedicated containers, and minimal transfer points. Most folks using this compound in the lab come to respect how quickly fumes can spread, and we use this direct experience to inform our recommendations. We don’t just sell a bottle; we deliver advice from decades spent watching these reactions up close.
Standard specs in the industry—appearance, GC-assay, color on the APHA scale, free acidity, and water content—only tell part of the story. For us, GC purity above 99.5% isn’t a theoretical bar, it’s proven by retention times day in and day out. We limit acidity below 0.5% (calculated as HCl), and routinely check for low water content, often using Karl Fischer titration.
Consistency isn’t automatic. Every production run goes through individual retention checks, and the team scans for UV absorbance and trace chlorinated by-product formation. If a lot falls out of spec, it doesn’t ship—that’s the kind of peace of mind we rely on ourselves when using our own intermediates.
Unlike traders or brokers who never touch the product, we personally sweat whether last week’s batch measures up, because every off-spec drum is money and reputation lost. Direct oversight inside the plant forces us to keep learning: contamination sources, pump seal leakage, or a hot distillation plate can all create downstream headaches. Sitting inside a manufacturer has a way of teaching caution.
Once you’ve seen a reactive spill eat its way through a gasket or heard from a customer who lost a week tracing an impurity, you stop taking shortcuts. For us, this business isn’t just about making specs; it’s about learning from every small disaster and tweaking the steps so it doesn’t repeat. We keep batch samples on the shelf for years, to compare against returns and to check the long-term stability, because we’ve learned that unexpected shipping delays or storage in wild climates are facts of life.
We track our phenylacetyl chloride shipments and get feedback from synthetic chemists and plant engineers. More than a few have switched from other suppliers after equipment corrosion issues, or after mystery by-products kept turning up. Avoiding these headaches comes down to preemptive controls during production, not just hoping for careful handling downstream.
We use high-performance packing lined with compatible fluoropolymers. Metal cap gaskets cause as many problems as they solve—embedded chlorides can poison precious catalysts in multi-step synthesis, so we take pains in choosing appropriate closures. This level of experience doesn’t come from reading a textbook; it comes from years of opening, pouring, filtering, and analyzing with our hands.
Some clients ask if phenylacetyl chloride compares with benzoyl chloride or other acyl chlorides. It comes down to subtle chemistry and real-world experience with reactivity. For example, phenylacetyl chloride’s extra methylene group offers a level of selectivity and flexibility in peptide coupling that benzoyl chloride can’t easily match. In medical synthesis, this often means higher yields and lower instances of overacylation.
From a handling perspective, phenylacetyl chloride’s hydrolysis rate and acid formation differ from compounds like acetyl chloride or chloroacetyl chloride, which can decompose or volatilize much more rapidly. Anyone who’s corked a bottle of acetyl chloride knows the difference as soon as they open the cap. Phenylacetyl chloride sets itself apart for those looking to keep a more controlled, targeted path through their synthetic steps.
Most end-users talk about speed, reliability, and getting their chemistry done without chasing problems. We’ve heard from fragrance producers about color shifts in old lots or inconsistent notes caused by impurities, and from pharma teams concerned about regulatory compliance due to residual solvents. These are not academic questions–they show up in lost time and costly documentation delays.
One pattern stands out: users who get drums direct from us report less yield loss and fewer purification headaches compared to shipments re-packed or relabeled multiple times. We think this comes from the tight process controls and clear lines of accountability direct production affords. So much gets lost in translation when hands-off suppliers assemble their blends from second- or third-tier sources. Keeping responsibility under one roof turns out to matter.
We believe solving process issues starts in the plant, not just with paperwork. Inline moisture controls, regular equipment upgrades, and cross-training staff all go further than any marketing claim. If a shipment ever reports issues, we trace it back—not just to the day of production, but to the actual reactor, operator, and QC signoff. Constantly re-investing in better glass-lined reactors and ventilation means safer output and sharper product.
Waste handling from phenylacetyl chloride manufacturing gets plenty of attention—these aren’t wastes you can pour down a drain. We neutralize, scrub, and reclaim as much as possible, staying ahead of local and international regulatory shifts. Over the years, we’ve established external audits and third-party verifications for waste streams; it’s a hassle, but being a responsible operator directly improves our own plant safety and job satisfaction.
We collaborate with downstream processors to cut hazardous shipping reroutes and optimize transport fill levels. By working directly with buyers’ logistics teams, we’ve been able to shrink the amount of damaged freight or off-specification lots arriving at their warehouses. Knowing the details—how humidity in a cargo hold alters product over two weeks, or which gasket material survives the trip—helps foster mutual trust, not just contractual obligation.
Compliance creates daily work in the manufacturing world, especially for controlled or dual-use chemicals. We treat documentation as part of the product, not a box to tick. Batch-level records, third-party analyses, and traceability back to raw material lots aren’t optional. Auditors expect a straight answer on impurity profiles and shelf-life data, and too many suppliers rely on generic statements that fall apart on inspection.
Every label and data sheet matches the substance inside, and we keep historical records so users with multi-year horizons—say, pharmaceutical validation runs—can prove what went into their formulations. If a lab needs custom impurity testing, we can pull archived samples and rerun analysis upon request. Years of audits have taught us that flexibility in paperwork matters as much as specs in the bottle.
We run feedback loops across our teams. If a client reports a recurring haze or unexpected odor, it kicks off a root-cause hunt through cleaning, raw materials, and process controls. No matter how long we’ve run these lines, we keep learning—sometimes a single batch teaches us more about moisture ingress or valve maintenance than months of smooth running.
Direct manufacturing means adapting to shifts in demand or raw material challenges. If feedstock purity changes, we retool, not just accept lower yield. We don’t rely on guesswork—our QC benches carry more work than some labs’ entire production teams. Every tweak and fix goes into the procedures for the next run, so improvement never stops.
Clients collaborate with us because we walk through challenges together, not just because we deliver on time. We know their success changes with every step upstream. When a startup moved from bench scale to kilo lab, our technical team helped crosswalk new solvent handling and monitoring steps, and the result was a lower scrap rate on validation runs. That kind of partnership comes from seeing the process end-to-end, not just from the shipping dock.
As a manufacturer of phenylacetyl chloride, our promise is built on the daily investment in better equipment, cleaner lots, and straight communication. We respect both the hazards and the opportunities in this powerful reagent and welcome every call from chemists who demand more than just a vendor—they want someone who’s faced the same challenges and made the improvements that stick.
Every bottle of phenylacetyl chloride reflects the effort that started long before the label went on. Experience shapes every drum, every standard, every phone call and troubleshooting session. This is chemistry built for the workflow of industry, grounded in lessons learned batch by batch. We don’t chase trends. We build reliability, listen to feedback, and work with you to solve the persistent, sometimes unpredictable challenges of real-world manufacturing. This tradition keeps us honest and drives our commitment to your success.