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HS Code |
815227 |
| Chemical Name | 2-Chloro-N-(2-chlorophenyl)acetamide |
| Cas Number | 59710-08-0 |
| Molecular Formula | C8H7Cl2NO |
| Molecular Weight | 204.05 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 120-123°C |
| Solubility | Slightly soluble in water |
| Purity | Typically ≥98% |
| Smiles | C1=CC=C(C(=C1)NC(=O)CCl)Cl |
| Synonyms | 2-Chloro-N-(o-chlorophenyl)acetamide |
| Storage Conditions | Store at 2-8°C, tightly closed |
| Hazard Statements | Irritant to eyes, skin, and respiratory system |
As an accredited 2-Chloro-N-(2-Chlorophenyl)Acetamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A sturdy 100g amber glass bottle with a secure screw cap, clearly labeled with chemical name, hazard symbols, and batch details. |
| Shipping | 2-Chloro-N-(2-Chlorophenyl)acetamide is shipped in secure, airtight containers to prevent moisture and contamination. Packaging complies with standard chemical and hazardous material regulations, ensuring safe transit. The shipment includes detailed labeling and accompanying documentation outlining handling and safety procedures. Temperature stability is maintained during transit to preserve chemical integrity. |
| Storage | Store **2-Chloro-N-(2-chlorophenyl)acetamide** in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers. Keep the storage area clearly labeled and secure, and prevent moisture ingress. Use appropriate personal protective equipment when handling the chemical. Follow all relevant safety guidelines and regulations. |
Applications of 2-Chloro-N-(2-Chlorophenyl)Acetamide in Industrial ManufacturingProduced in our dedicated facilities, 2-Chloro-N-(2-chlorophenyl)acetamide serves as a key intermediate in select industrial manufacturing processes. Below, we outline four established application scenarios—each reflecting real integration of this material within mature industrial chains, with clear information on compliance, usage levels, process positioning, and market-grade finished products. 1. Agrochemical Synthesis: Herbicide IntermediateWithin the agrochemical sector, this compound enters the synthesis route as a strategic amide intermediate for specific selective herbicide classes. Technical teams adopt it for constructing core structural motifs during active ingredient preparation runs, especially for phenoxyacetic-based herbicides. Consistent quality and reliable supply ensure uninterrupted operation for seasonal and large-scale production campaigns. Industry compliance standards
Typical usage ratio
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2. Pharmaceutical Intermediate: Antimicrobial API SynthesisIn API synthesis, manufacturers utilize this compound during the construction of amide substructures forming the core of certain antimicrobial agents. Process chemists value its reactivity and purity profile for high-yield amide formation, especially where double-chlorination impacts bioactive molecular design. Material QC, traceability, and documentation support batch release under GMP-relevant processes. Industry compliance standards
Typical usage ratio
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3. Dye Manufacturing: Intermediate for Azo and Anthraquinone DerivativesThis material functions as a coupling agent or protected amide source in the controlled synthesis of certain dye intermediates, particularly in azo and anthraquinone pigment manufacturing. The compound’s structural features enable chromophore customization for application in textile and plastics coloration, supporting consistent lot-to-lot performance in pigment dispersion and fastness testing. Industry compliance standards
Typical usage ratio
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4. Specialty Chemicals: Intermediate in Benzanilide Derivative SynthesisDownstream specialty chemical plants incorporate our material as a critical amide backbone for synthesizing functionalized benzanilide derivatives. These downstream compounds enable high-value uses in polymer cross-linkers and advanced coatings. Material handling protocols focus on batch consistency, process safety, and analytic profile suitable for non-pharmaceutical, industrial synthesis routes. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Our production lines have handled 2-Chloro-N-(2-Chlorophenyl)Acetamide (often called 2CCA) for years, going back to when demand for certain intermediate chemicals first surged in the pharmaceutical and agrochemical industries. The chemistry behind this compound isn’t just textbook knowledge — we watch the reaction step by step, measure every factor, and monitor each parameter since every batch must stay within tight purity ranges. Every drum shipped signals hours of quality checks and analytical runs behind the scenes.
Our customers turn to us not just for the product but for the consistency and reliability that manufacturing at scale brings. Unlike brokers or downstream mixers, we run the synthesis on our plant floors, controlling the process from raw material intake to the boxed end-product. This hands-on oversight means we see first-hand how changes in temperature, solvent choice, or even minor tweaks in input quality affect the 2CCA’s output.
Producing 2-Chloro-N-(2-Chlorophenyl)Acetamide involves careful chlorination of a suitable precursor, followed by an amide coupling that requires real precision. Our chloride raw materials come straight from validated suppliers, whose patterns of supply we’ve tracked for years. We keep analytical records, not just certificates of analysis — every production run gets a full spectrum readout, with GC-MS and HPLC comparisons for authenticity and purity.
In a typical batch, after chlorination and amidation, the crude product undergoes recrystallization since trace impurities can lower the final product’s quality. Time on the filtration line matters just as much as fancy analytical tools. Even one pump running off-rhythm can push down the yield or add off-colors to the flakes and powder. Through decades, our crew has learned which operations make the difference between a pure white product and material rejected at quality control.
2-Chloro-N-(2-Chlorophenyl)Acetamide appears as a solid usually leaning off-white, with slight color differences based on lot-specific purity and the drying method. Our lab refrains from pushing excessive bleach just to get a whiter color — excess residue causes more trouble than tiny visible specks. The purity typically exceeds 99 percent, based on HPLC and NMR trace analysis.
The compound has a melting point consistent with literature, usually hovering around 110-113°C under our environmental controls. Handling this material, our workers wear proper PPE since it displays mild irritation risk on the skin and eyes, as you’d expect from an acetamide and chlorinated aromatic. Packaging stays moisture-tight with tamper proof seals because even a small humidity uptick during shipping adds clumping and complicates further handling.
We sometimes field questions about solubility and compatibility. 2CCA dissolves moderately in common organic solvents like ethanol and acetone, but we remind partners of its limited water solubility — large-scale dissolving calls for a little patience and gradual addition, especially going into formulations.
Chemical manufacturing rarely allows shortcuts. 2-Chloro-N-(2-Chlorophenyl)Acetamide sits at a critical stage for several value chains, especially where complex molecules require robust amide intermediates. Our product sees highest usage in pharmaceutical synthesis, pesticide creation, and dye intermediates. We regularly coordinate with fine chemical companies, given that any deviation from spec causes downstream headaches — off-odors, off-colors, or wrong melting points throw entire formulation batches off course.
Factory teams in end-user industries share feedback regarding handling characteristics and performance during synthesis. Some prefer our product because each batch comes without trace amine smells, while others find its specific particle size distribution bridges gaps between rapid dissolution and ease of transfer. From ongoing dialogue, we have fine-tuned grain size and drying processes. Direct manufacturer input beats resold supplier samples for understanding subtle end-use tweaks.
Every lot of 2CCA exiting our facility comes with full analytical documentation and production batch history. We store retention samples for each batch because experience has taught us that trace impurities, even far below regulatory thresholds, worry customers who rely on critical-to-quality intermediates. Documentation culture in our lab stands as proof of work rather than a paperwork chore.
One key example: certain generic drug syntheses require minimum detectable levels of related compounds. During a joint validation project, a customer flagged an unexpected impurity. Our team didn’t just send a new lot — they pulled historical analytical traces and traced the source to a minor input impurity variation, visible only through our full dataset. Adjusting the input stream and running new purification, we kept their process on track without missed delivery deadlines.
Compare this to distributor-sourced lots, where traceability blurs after repackaging. Factory-direct guarantees aren’t marketing fluff; it’s a real control over what ends up in the drum or bag sent down the line. Backtracking through every operation, our staff can pinpoint process deviations to the hour and the shift, resolving questions without passing the buck or blaming upstream partners.
Those shopping for acetamides face a wide catalog. Not all derivatives serve the same purpose or work interchangeably. 2-Chloro-N-(2-Chlorophenyl)Acetamide stands out for its dual chlorination: chlorinated at both the phenyl and acetamide positions. This detail gives it specific reactivity ripe for particular substitution reactions. For instance, compared to simple N-phenylacetamides or mono-chlorinated acetamides, its electron-withdrawing structure favors more selectivity during coupling and halogen exchange.
We’ve run side-by-side physical trials in our process lab. Other acetamides sometimes respond sluggishly under standard catalytic conditions or produce different byproducts. IP-sensitive clients use 2CCA precisely because minor structural differences create patentable improvements or pave the way for a cleaner downstream product. Laboratory staff and long-term customers often discuss how small variations in the acetamide backbone affect not just conversion rates but also ease of purification in later synthesis steps.
From an operator’s perspective, 2CCA behaves as a stable crystalline intermediate, avoiding the volatility and rapid hydrolysis that plagues some related compounds. Storage life in proper bags and barrels runs several years, based on real shelf-life testing — not just calculated projections. Other acetamides can yellow or decompose noticeably faster, and batch-to-batch color holds importance for product credibility when regulators or end-buyers review each drum or bulk sack.
Working every day with chlorinated aromatics, our staff sees the practical realities of process safety and environmental compliance. Amide synthesis releases characteristic byproducts, sometimes including hydrochloric acid vapor. We install and maintain acid scrubbers, not just to check a regulatory box, but because keeping the floor team safe remains an operational priority. All wastewaters flow through on-site treatment before anything reaches the main line, limiting impact on downstream users.
Historically, scaling up from pilot lots to full-scale drums introduced challenges. The step where reagent addition sped up by only a few minutes led once to pressure spikes in the reactor, remembered well by everyone on site that week. We adjusted control algorithms and staggered feeds, proving once again that manufacturing scale brings new lessons — something less visible to repackagers and virtual traders.
On issues like dust control and solvent recovery, our shop floor teams raised process tweaks that translated into measurable improvements. We know dust may escape during bagging if humidity sneaks in just ahead of the packaging step, so the bagging room now runs under slightly higher negative pressure and with better dehumidification. Operators value these changes since comfort connects directly to job satisfaction and overall retention.
Throughout these improvements, engineers and production managers walk the floor daily to review housekeeping, not waiting for third-party audits to spot problems. Seeing the real chemical, feeling the heat of the reactors, and reviewing control panel data keeps accountability near the ground floor, not lost through layers of abstraction.
Our knowledge of where 2-Chloro-N-(2-Chlorophenyl)Acetamide winds up comes not only from paper trails but from feed-back-intensive collaboration with our largest partners. End users include generic pharmaceutical plants, where this compound supports synthesis pathways for complex active molecules; pesticide makers, aiming for reliable performance over seasonal cycles; and dye makers with high color fidelity requirements.
Regular feedback drives our incremental changes. Customers deploying 2CCA in their manufacturing setups point out how delivery on time, unpacking ease, and handling of bags or drums affect their schedules. Over time, these field observations have prompted us to move from rigid drums to reinforced liners in some regions where transit humidity spikes during monsoon or summer. This wasn’t a boardroom idea; it came from visiting warehouses and watching material loaded and unloaded alongside end-user teams.
Large pharmaceutical buyers sometimes request pre-grinding for blends targeting high-shear mixers, while makers of smaller batches often want bulk, unblended lots for their own mills. Each variant, batch-coded and tracked without dilution or cut with unknown powder, holds up to customer scrutiny when to open a package and test incoming lots with their own analytics.
Direct-to-customer supply provides real opportunities for process troubleshooting. On more than one occasion, a partner’s reaction yields dropped inexplicably — but by reviewing in-house logs, we could suggest tweaks not just in our own product, but in the wider process. Years of manufacturing mean we’ve seen both textbook successes and painful failures, and know that publishing mistakes and corrections achieves more than simple salesmanship.
Domestic and international buyers benefit from a stable, traceable, and repeatable supply, as direct-from-factory shipments eliminate the risks common to third-party handlers. Our warehouses track outgoing shipments batch-wise, not mixing old inventory with new stock. In practical terms, this means a customer requesting fresh material for a sensitive synthesis can rely on accurate lot dating, sample archiving, and consistent quality.
This reliability proves vital during market volatility or raw material shortages. We’ve handled market disruptions where access to core feedstocks tightened unpredictably. By cultivating long-term supplier relationships and dual-sourcing critical raw materials, we’ve provided continuity where intermediaries could only shrug at delays. Last year, sudden price spikes in some precursors caused concern, yet our strategic reserves meant deliveries continued unbroken throughout the pinch.
Customers routinely compare our 2CCA to repackaged materials offered by trading houses. Reports of off-odor, tan discoloration, or poorly sealed bags circulate in trade channels. Those who switch to factory-origin product notice increased process reliability, fewer breakdowns, and more predictable yields. Several client audits cross-examine our plant processes and follow through to our bagging lines; full transparency builds trust over word-of-mouth alone.
A partner in the pesticide sector faced variable product performance due to suspected intermediate variation. We worked alongside their technical staff, providing not only fresh analytical printouts on our 2CCA but also review of our historical process records. Our chemists joined their onsite trial team, helping parse what deviations stemmed from intermediate quality versus downstream environmental influences. The insight and transparency we brought led to meaningful corrections in their own process, not just a new order from us.
Pharmaceutical customers often undertake parallel validation — testing runs across lots and suppliers. Our statistical batch histories and openness with process excursions positioned us as their partner of record, rather than just another input bidder. This active engagement reflects company culture built from hands-on experience, rather than a bureaucratic box-tick. The phone rings with technical queries and troubleshooting needs more often than basic order confirmations — the proof that plant-to-plant manufacturing supply offers deeper value than the blended anonymity of the spot market.
We’ve welcomed regulators and auditors into our plant floor since data, process improvements, and open-issue trackers demonstrate control and culture. Seeing day operators document both near-misses and best practices builds long-term confidence with customers and industry peers.
Operating in the chemical manufacturing arena means taking environmental responsibility seriously, not as mere compliance but as a shared burden with downstream users. Waste minimization, emission reduction, and energy optimizations run as parallel priorities to product quality in our plant. The plant team regularly reviews scrubber efficiency, solvent recovery cycles, and water reuse figures — not waiting for outside audits to drive real change.
A key learning has been that waste footprints shrink fastest through continuous, incremental change. Early procedures vented more process acids than current runs; by investing in on-site capture and recovery, we reduced visible emissions. A solvent recycling pilot, suggested by our plant engineers, cut both input purchasing and waste disposal costs, while also improving our stand with environmental authorities. Crystallization and drying emissions dropped after process redesign, a result more tangible for an operating floor manager than any distant regulatory decree.
Our customer base, especially multinational pharma and crop science companies, now reviews not just product specs but the sustainability record. Factory tours for major clients include direct walks along the emissions line, as we believe real-world environmental controls carry more weight than general assurances or a stack of policies.
Experience with 2CCA shows that effective growth comes from collaboration — not isolated improvement. Whether it’s sharing impurity profiles, suggesting small-scale synthesis pilot runs, or reviewing best practices in blending, the cumulative wisdom of ground-level manufacturing builds stronger, safer supply chains.
Nearly every new client brings a challenge. Sometimes requested specs differ from the market standard: a particular particle size for rapid suspension, moisture limits lower than typical industry ranges, or bespoke documentation. Direct lines with R&D and QC teams, both on our side and the customer’s, mean these changes occur without adding weeks to delivery schedules. Feedback on specification and formulation compatibility becomes direct input for batch operation changes and procedural refinements.
As a hands-on manufacturer, our pride comes not simply from the volume shipped, but from the fact that each lot helps build an overall ecosystem of safer, more reliable, and trustworthy chemical supply. Remaining open about process challenges, accumulating reliable production data, and placing real value on feedback from the field — these roots grow trust and performance over time. We know the difference that precision-made 2-Chloro-N-(2-Chlorophenyl)Acetamide delivers, because we feel its impact daily along our own shop floor, inside every finished production run, and through every auditor or partner walking through our hallways.