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HS Code |
715009 |
| Cas Number | 38870-89-2 |
| Molecular Formula | C3H5ClO2 |
| Molecular Weight | 108.52 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 117-119 °C |
| Density | 1.21 g/cm3 at 20 °C |
| Melting Point | -48 °C |
| Refractive Index | 1.420 |
| Flash Point | 43 °C |
| Solubility In Water | Reacts with water |
| Odor | Pungent, irritating |
| Purity | Typically >97% |
| Vapor Pressure | 7 mmHg at 20 °C |
As an accredited Methoxyacetyl Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methoxyacetyl Chloride is packaged in a 500 mL amber glass bottle with a secure screw cap and chemical hazard labeling. |
| Shipping | Methoxyacetyl chloride should be shipped in tightly sealed containers, under cool and dry conditions, and protected from moisture and incompatible substances. It is classified as a hazardous material, requiring appropriate UN labeling (UN 3265), and must be transported by trained personnel according to international regulations for corrosive and toxic chemicals. |
| Storage | Methoxyacetyl chloride should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. It must be kept in tightly closed containers made of materials resistant to acid chlorides, such as glass or certain plastics. Store away from water, alcohols, bases, and oxidizing agents, as it reacts violently with these substances. |
Applications of Methoxyacetyl Chloride in Industrial ManufacturingMethoxyacetyl chloride supports key synthesis pathways in modern chemical manufacturing. As a direct manufacturer, we supply this intermediate to regulated industrial sectors that require defined purity and reliable sourcing. Below, you find major downstream application fields, each highlighting standards, ratios, technical processes, and end products relevant to specialized users. 1. Pharmaceutical Active Ingredient SynthesisPharmaceutical producers use this intermediate for acylating reactions to build active pharmaceutical ingredient (API) scaffolds, especially for drugs within anti-infective and central nervous system classes. Controlled processes include methoxyacetylation of heterocyclic amines and phenols under anhydrous, monitored conditions to ensure isolation of the intended API precursor. To maintain batch-to-batch reproducibility, manufacturers adjust reagent amounts based on substrate reactivity and targeted impurity profiles. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Agrochemical Intermediate ManufacturingThe agrochemical sector employs methoxyacetyl chloride in synthesis of herbicide and insecticide intermediates. The material primarily enables selective N-acylation of aromatic or heterocyclic rings, facilitating stepwise construction of target molecules. Formulators balance acyl chloride input and base quench to minimize hydrolysis, controlling impurity levels to meet international residue and registration requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Synthesis of Specialty UV AbsorbersProducers of specialty chemicals apply methoxyacetyl chloride for functional modification of aromatic compounds as part of UV-absorber and light stabilizer production, essential in plastics compounding and coatings technologies. The acyl chloride introduces methoxyacetyl moieties onto phenolic core structures, improving solubility and absorption spectra. Careful workflow includes strict control of reaction exothermicity and post-reaction purification. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Preparation for Aromatic Ether DerivativesFine chemical manufacturers choose this material for acyl transfer reactions enabling selective formation of methoxyacetylated ethers. These reactions serve as critical steps before etherification and subsequent deprotection in multi-step synthesis for aroma chemicals, electrical grade monomers, and advanced organic materials. Operators monitor acid chloride addition rates and control residual solvent content to meet downstream ultra-purity specifications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Catalyst & Ligand Precursor Synthesis in Chemical ProcessingManufacturers specializing in advanced catalysts and ligands employ this chloride for controlled acylation of nitrogen- and oxygen-functionalized aromatic motifs. Resulting intermediates allow for stepwise construction of ligands for homogeneous and heterogeneous catalysis systems. Synthesis frequently occurs under inert atmosphere with closely managed thermal profiles to avoid degradation. Quality teams verify residual chloride and purity before metal complexation stages. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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At the factory floor, we handle Methoxyacetyl Chloride every day. There’s nothing theoretical about the challenges or advantages you get from using such a reactive compound. The CAS number for Methoxyacetyl Chloride is 38870-89-2, which some customers recognize quickly. In our own stacks and drums, this liquid carries a distinct pungent odor and a colorless to pale yellow appearance depending on its age and storage. We fill our tanks with genuine Methoxyacetyl Chloride that meets strict purity standards for industrial and research applications.
Customers often ask about the real difference between Methoxyacetyl Chloride and other acyl chlorides. The key is the methoxy group. With that piece located at the alpha position, this molecule brings a different set of properties to the table compared to plain acetyl chloride or longer-chained analogues. Resistance to hydrolysis tends to be a little lower, and people working in process development usually notice that reactivity profile right away. You don’t have to coax it into a reaction. Our in-house chemists appreciate this responsiveness, especially for acylation steps under mild conditions or with difficult substrates.
Methoxyacetyl Chloride leaves our plant with a guaranteed level of purity, which we verify through gas chromatography. Every batch meets or exceeds a 99% purity mark. That doesn’t happen by accident. We tune every step in the synthetic pathway, monitor residence time, and watch the distillation profile. Even with advanced controls in place, you only get solid product by paying careful attention to temperature, moisture, and the glassware itself. Any trace water in the system will be obvious — you see haze forming, yields dropping, and the chance of hydrochloric acid formation rises. To minimize those headaches, we stick to stainless or PTFE-lined transfer lines and purge with dry nitrogen.
Some spec sheets mention color standards; we match to Hazen values. Yellowing tells us about old stock or an improper seal. Insights about packaging also come from first-hand mistakes. We’ve tried different drum materials, only to see certain liners break down and contaminate the product. Now, stainless drums with nitrogen blanket keep contents stable for months. Any request for repacking or specialty small volumes involves triple checking inert conditions. This pays off when customers using Methoxyacetyl Chloride in fine chemical synthesis or pharmaceutical intermediates report trouble-free processing.
This compound reacts strongly with moisture. You’ll recognize the acrid fumes instantly if the drum seal is broken or there’s a leak. Having processed thousands of liters, our team stresses the discipline required in storage and transfer. Every tank, pipeline, and storage vessel must dry before use. Even a short lapse can cost a batch, and there’s no shortcut to getting rid of water once it’s in the system. In our facility, monitoring for leaks through inorganic sensors and keeping a supply of proper neutralizing agents close at hand are standard practices.
Methoxyacetyl Chloride’s reactivity offers a benefit: you don’t need high temperatures or harsh conditions for most acylation reactions. Factories using it in production can save both energy and time versus working with less reactive chlorides. That efficiency is a real-world advantage, but it comes at the cost of careful handling. Staff training, emergency kits, and routine equipment checks are part of daily life at the plant.
Most users tap into Methoxyacetyl Chloride’s utility thanks to its role as an acylating agent. For our customers, it’s all about the finer details in chemical synthesis. Labs making specialty esters, protected amines, or certain pharmaceutical intermediates often favor this compound for speed and selectivity. The methoxy functionality opens up new avenues in heterocyclic chemistry, especially when researchers want to introduce an acyloxy group with an ether twist.
We’ve watched university projects and industrial clients take advantage of Methoxyacetyl Chloride when crafting special building blocks. The selectivity it offers saves downstream purification steps. Fewer byproducts mean higher yields. For our side, that feedback turns into further refinement—repeated distillation, more controlled inert gas flow, and consistent analytical follow-up.
Manufacturers of fine chemicals see first-hand the contrast between Methoxyacetyl Chloride and other reagents like acetyl chloride, benzoyl chloride, or longer-chain substituted chlorides. Compared to acetyl chloride, Methoxyacetyl Chloride delivers a milder, more controlled acylation when working with sensitive substrates. The presence of the methoxy group moderates nucleophilicity and provides an added handle for further transformation. In contrast, benzoyl chloride tends toward bulkier products and slower reactivity. Long-chain acyl chlorides might add solubility or flexibility, but they also bring additional separation challenges—which can mean more solvents and filtration steps downstream.
Feedback from our partners in the agrochemical sector shows Methoxyacetyl Chloride allows for easier introduction of masked functional groups. This can mean shorter synthetic routes and simpler work-ups. In contrast, acylations with non-methoxy chlorides tend to drag along more aggressive conditions and less selective reactions. Real-world chemical manufacturing doesn’t leave much margin for error, so balancing reactivity and selectivity makes Methoxyacetyl Chloride a preferred choice for precision work.
Environmental impact sits high on the list of concerns each year. Methoxyacetyl Chloride preparation generates hydrogen chloride gas, which we capture, scrub, and neutralize at the source. We invested in sealed reactors and proper exhaust management; open-vessel handling is off the table. The off-gas scrubbers run round-the-clock and undergo regular performance validation. We don’t let uncontrolled emissions threaten either our team’s safety or the local community’s air quality. Several years back, we reviewed our entire scrubbing protocol after regulatory updates and tightened up leak points with new flanges and gaskets.
Waste contains not only chlorinated hydrocarbons but also water-soluble byproducts, so treatment covers both organic and inorganic removal. Our plant upgraded to closed-loop water circuits, cutting down fresh water use and reducing chloride load in the effluent. These are practical steps that go beyond what paperwork and documentation require — they’re solutions born from solving past missteps and listening to frontline workers. We maintain robust records on waste characterization, always prepared for state-level audits or third-party checks.
Working directly with Methoxyacetyl Chloride changes your attitude toward plant safety. The old days of gloves and goggles have given way to full face shields, acid-resistant aprons, and high-flow ventilation hoods for every transfer. Real accidents etched those practices into the daily routine. Even small splashes cause burns and irritation; vapor exposure feels worse. Our team trains on spill containment and neutralization drills quarterly, never skipping over simulated leaks, even after years without incidents. If a pump’s seal fails, everyone knows their stations.
We rely on local and international health agencies for protocols, but we improve them with our own experience. No one stands in a room with active methoxyacetyl chloride lines without an escape plan and a pre-checked eyewash station nearby. Our health office monitors cumulative exposure records and double-checks PPE inventories before every major production run. New staff members shadow veterans and only operate isolation valves after hands-on mentorship.
Methoxyacetyl Chloride demands more than a basic drum and label. We ship most of our material in stainless steel drums filled under dry nitrogen, which stops air and water from creeping in. Poly liner alternatives compromise integrity, so we phased those out. Summer-time shipping means planning routes to avoid heat spikes that stress seals. Real issues like jostling on trucks or vibration across train yards have forced us to test several closure designs. We’ve tightened protocols so leaks during transit dropped to near zero.
International transport creates further complexities. Most end-users require detailed shipping manifests, up-to-date MSDS, and documentation on purity and residual content. Certifications about transportation under ADR, IMDG, and IATA guidelines move out with every bulk order. At the same time, customs checks in different markets can vary, so our logistics crew prepares full documentation packs for each shipment. No one enjoys hold-ups at port, so getting it right up front builds trust with our clients.
Improving Methoxyacetyl Chloride production means never standing still. We keep a log of process deviations, root-cause analyses, and customer complaints. If an intermediate batch fails gas chromatography or moisture spec, we fix—not just paperwork, but physical processes. Our team swaps tips during end-of-shift meetings and competitions on best practices. These conversations drive upgrades in automation, valve design, and inline analytics.
Customers expecting higher reactivity or a tighter impurity profile get their expectations set by us directly. We answer chemistry questions on the phone, review literature, and offer on-site technical support. That trust runs both ways: when a client discovers unexpected side-products, they report back, and we search for a solution. That kind of two-way interaction raises standards and sharpens our understanding year by year.
Product stewardship extends past shipping and sales. We visit customer sites to walk through their process and troubleshoot tank mixing or dosing issues. Collaboration between operators and chemists uncovers better dilution habits, more accurate metering pumps, and improved protection against hydrolysis. We retire outdated ideas that no longer work, replacing them with tested steps that stand up to scrutiny.
From the manufacturing perspective, Methoxyacetyl Chloride connects to a family of reagents with overlapping uses but distinct safety and performance issues. Acetyl chloride brings more volatility, raises corrosion hurdles, and leaves customers with more stringent tank maintenance. Benzoyl chloride introduces a heavier vapor, needs longer reaction times, and presents storage headaches with solid residues over time. Long-chain analogues resist hydrolysis but can gum up lines or prolong separations. With Methoxyacetyl Chloride, equipment wear balances out with more manageable reaction conditions and less frequent cleaning cycles.
On the plant floor, each chloride compound sends its own warning signals and creates different waste profiles. Fine-tuning procedures to fit Methoxyacetyl Chloride means adapting training, leak detection routines, and process controls. Staff moving between products comment on the comparative ease of methoxyacetyl chloride as long as everyone stays vigilant on moisture control and ventilation. The trade-off remains: greater reactivity for a bit more vigilance day to day.
We follow regulatory shifts and listen to calls for greener chemistry. New restrictions on residual chlorides and airborne emissions nudge us to improve capture and treatment. In our experience, innovation emerges through collaborative problem-solving rather than just chasing certification labels. Our R&D team partners with university groups examining alternative synthesis routes that cut waste at the source.
Some research points toward swapping traditional acyl chlorides for safer or more atom-economical reagents, but Methoxyacetyl Chloride holds its place due to unmatched selectivity and wide compatibility. Until a new class of building blocks outperforms it, demand remains steady. We keep fine-tuning for lower residuals, safer handling, and streamlined logistics. We also invest in staff development, making process safety second nature.
From our vantage point, Methoxyacetyl Chloride production is more than a supply business. It means respect for chemistry, relentlessly improving operations, and thinking ahead with our partners. In a world where small changes in product quality ripple through whole supply chains, that commitment to detail defines what we do each day.