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HS Code |
969703 |
| Chemical Name | 5-Acetylamido-2-Chloroaniline |
| Molecular Formula | C8H9ClN2O |
| Molecular Weight | 184.63 g/mol |
| Cas Number | 16394-25-1 |
| Appearance | Off-white to light yellow powder |
| Melting Point | 198-202 °C |
| Solubility | Slightly soluble in water |
| Purity | Typically ≥98% |
| Synonyms | N-(5-amino-2-chlorophenyl)acetamide |
| Smiles | CC(=O)NC1=CC(=C(C=C1)Cl)N |
| Storage Conditions | Store at room temperature, keep container tightly closed |
As an accredited 5-Acetylamido-2-Chloroaniline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White HDPE bottle labeled "5-Acetylamido-2-Chloroaniline, 100 grams," with hazard pictograms, batch number, and manufacturer’s details. |
| Shipping | 5-Acetylamido-2-Chloroaniline is shipped in tightly sealed containers, protected from moisture, light, and incompatible substances. Packaging complies with local regulations, typically including labeling for hazardous materials. Ensure transport at ambient temperature with appropriate documentation. Handle with care to prevent leaks, and store in a cool, ventilated area upon arrival. |
| Storage | Store **5-Acetylamido-2-Chloroaniline** in a tightly sealed container, in a cool, dry, well-ventilated area, away from incompatible substances such as oxidizers and strong acids. Keep away from direct sunlight and sources of ignition. Label the container clearly, and handle using appropriate personal protective equipment to avoid inhalation, ingestion, or skin contact. Store at room temperature unless otherwise specified. |
Applications of 5-Acetylamido-2-Chloroaniline in Industrial Manufacturing5-Acetylamido-2-Chloroaniline is a specialty intermediate essential in production processes requiring selective amine and halogen functional groups. Our direct manufacturing expertise enables technical supply to downstream factories operating under strict industry regulations. Below, we outline specific industrial application cases, with related compliance, formulation ratios, production steps, and end product categories. 1. Synthesis of Azo Dyes for Textile PrintingTextile dye manufacturers use this intermediate in the preparation of azo dyes requiring chloro- and acetamido-substituted aniline building blocks. It supports high-color fastness characteristics valued in cotton and viscose fabric coloration, entering the diazotization and subsequent coupling reactions for final dye molecule development. The raw material’s consistent purity permits controlled batch-to-batch quality for regulated textile exports. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Pharmaceutical Intermediate for Sulfonamide SynthesisPharma API plants utilize 5-acetylamido-2-chloroaniline as a defined intermediate for synthesizing sulfonamide drug molecules where both chloro and acetylamino functionalities must be precisely integrated. In regulated GMP environments, its highly controlled impurity profile ensures consistency in downstream transformation to sulfa drugs via sulfonation and subsequent condensation reactions, fulfilling monograph requirements for export-grade pharmaceuticals. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Agrochemical Intermediate for Chloroaniline-Derived HerbicidesAgrochemical processors engage 5-acetylamido-2-chloroaniline in the targeted synthesis of specific chloroaniline-derived herbicide actives, including selective pre-emergent and broadleaf weed control agents. Its halogen and amide functionality allows for direct incorporation into the key aromatic ring, enabling production of molecules with defined water solubility and field stability. Usage adheres to pesticide residue and formulation restriction regulations for seed and grain crop protection agents. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Intermediate in Specialty Polymer AdditivesPolymer additive manufacturers utilize this compound to prepare specific stabilizers and colorants, particularly where aromatic amides with halogen character improve anti-oxidative and UV resistance in engineering thermoplastics. Exact usage depends on polymer backbone compatibility and the required long-term weathering stability for final plastic parts used in automotive and construction segments, demanding strict control of extractables and leachables as per end-use regulatory guidelines. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Every synthesis tells a story, and our 5-Acetylamido-2-Chloroaniline comes from years of hands-on research, scale-up, and quality control at our plant. We know every step that leads to this compound, which carries the molecular formula C8H9ClN2O. In chemical manufacturing, especially in intermediate compounds, quality carries through to every downstream process. Here, we focus on precision because we see how impurities early in the supply chain can cascade, risking multi-million-dollar batches for our clients.
Most demand comes from those in dye and pigment synthesis, specialty pharma, and agricultural chemistry. 5-Acetylamido-2-Chloroaniline serves as a foundational block for complex molecules, because it offers selectivity and reactivity that only a chlorinated aniline with an acetylamide functionality can provide. Manufacturers ask us not just for a product, but for security in their critical synthesis steps—that’s where our real work starts.
Each batch originates from basic reagents, carefully weighed and introduced directly to our reactors, in a controlled sequence refined over dozens of pilot and commercial runs. We manage exotherms manually, not just relying on automation, but with trained eyes and hands. In chlorination stages, temperature holds are watched every minute—avoiding over-chlorination that can lead to unwanted regioisomers. Acetylation follows, then thorough washing to strip out side products and residual acids.
More than once, we’ve caught purity drifting just by a shade—gathering an extra plate count on the HPLC, or spotting a slight yellowing in test samples that our technicians flagged. Purity typically ranges above 99 percent by HPLC, and we see customer processes running smoothly when the 2-chloro group sits in the right place and the acetylamide comes through cleanly. We confirm everything through GC-MS, and send out every batch with a full certificate of analysis, but we find the first quality control happens right at the point of manufacture. It’s rarely about the paperwork—more about the discipline that comes from the synthesis bay.
Moisture control stands out as absolutely necessary; even a minor uptick can shift downstream hydrolysis or pigment coupling results. We handle storage in dehumidified spaces and test at intervals. Experience tells us that packaging plays its own role: double-bagging, inert atmosphere purging, and prompt sealing.
Some may ask why use 5-Acetylamido-2-Chloroaniline and not a simpler aniline derivative. Direct substitutions on the aromatic ring affect electron density and, by extension, the compound’s reactivity in diazotization and coupling reactions. The acetylamide group stabilizes intermediates and offers selectivity in forming azo dyes with specific spectral properties—shades not accessible from unsubstituted or non-acetylated anilines. Downstream formulators can avoid certain by-products completely by specifying this intermediate. For agricultural chemistries, the chlorinated ring structure can offer pathways to more potent and selective agents, increasing yields and reducing environmental load from over-application.
Our teams have worked with universities and industrial development labs, observing how the product’s exact substitution pattern drives performance. In some cases, a seemingly subtle difference—such as the position of the acetyl group—shifts product stability by an order of magnitude.
Manufacturing experience has shaped our approach to both efficiency and safety. We use closed transfer systems on loading and unloading, keeping exposure below detection in our workspace. The substance itself gives off mild dust; proper ventilation matters especially during weighing and drum filling. Our operators learned early on: avoid open handling, prevent splashing during mixing, and use designated PPE. Good safety practices directly support process uptime; not just regulatory compliance, but a core part of our workflow.
During customer support calls, queries about solubility in varied solvents or compatibility with certain coupling agents remain common. We offer data based on our own process development logs, which show functional solubility in polar aprotic solvents. In the factory, we sometimes field questions on cleaning protocols—responding quickly with real data on solvent rinses (toluene, acetone, and alcohols have proved effective in our lines).
Large volume customers rely on prompt and steady deliveries. We built redundancy in everything—dual-source precursor procurement, multiple reactors, and backup utilities. Every kilogram of 5-Acetylamido-2-Chloroaniline sticks to one lot number from raw material grind through to final drum filling. This makes troubleshooting possible in the event of downstream performance hiccups.
Uninterrupted supply in times of market disruption depends on raw material hedging and short decision loops. We keep an inventory buffer and track usage patterns. In one case, a late-season plant shutdown from a raw material supplier sent shockwaves across the dye industry; because our purchasing group saw the price and supply baseline shift weeks before most competitors, we secured extra input stocks, and were able to keep deadlines for our customers with no substitutions or rush pricing.
We hear from formulators, purchasing managers, and process chemists looking for both technical guidance and proven track records. The value we offer starts with real-time access to process information, and transparent documentation, not with a glossy brochure.
In the world of aromatic amines and substituted anilines, even small differences can alter everything—efficacy, safety, processability. Some opt for 2-chloroaniline or 4-chloroaniline in their own syntheses, but these bring different levels of ortho and para-directing effects, raising the risk of mixed positional products in further couplings. Acetylation, as in our 5-Acetylamido-2-Chloroaniline, blocks unwanted substitutions and steers reactions toward predictable endpoints.
We benchmark our product’s solubility profiles and melting points against the closest commercial options. Customers report that the purity and reactivity of our material lead to cleaner conversions and brighter, more consistent pigment yields. One client observed a 12 percent reduction in off-spec batches after switching from a less rigorously manufactured competitor product. A single-chloro, non-acetylated aniline may appear less expensive per kilo, but formulators learn through testing that increased purification costs can easily erase those savings.
This compound’s consistent performance in downstream azo-coupling, both in open and closed batch processes, separates it from generic alternatives. During method development phases, process teams appreciate being able to rely on repeatable lot-to-lot results; this supports scale-up without hidden surprises that might trigger revalidation or compliance rework.
Not all purchasing decisions hinge on molecular structure alone. Our proximity to major chemical shipping routes shortens delivery for urgent runs, and our plant holds direct certifications for food-contact and pharmaceutical pre-cursor production, verified by inspection. Some customers order other amide-protected anilines, but return to 5-Acetylamido-2-Chloroaniline for its ease of integration into high-tonnage processes. Tracking requests for technical support, we’ve seen a marked drop in incident tickets with this product compared to less well-engineered analogs in the same segment.
We’ve served dye houses in Asia, pigment makers in Europe, and research labs running exploratory routes toward new pharmaceutical intermediates. These users describe direct benefits in the form of reduced batch purging and smoother downstream chromatography. In one large pigment project, a formulator needed a compound that would survive aggressive coupling conditions without excessive hydrolysis. Our 5-Acetylamido-2-Chloroaniline maintained both performance and color strength over multiple manufacturing cycles, saving thousands in both rework and pigment loss.
In another application, a pharmaceutical contractor required a fine-tuned intermediate—stable on storage, yet reactive in subsequent cyclization. Standard anilines didn’t meet their shelf-life requirement or gave excessive polymorph variability; by switching to our acetyl-protected, chloro-substituted grade, the end product retained uniformity over six months of accelerated aging and reached regulatory stability metrics for API usage.
Agrichemical innovators increasingly turn to substituted anilines with functional group protection to tune properties like soil mobility, degradation rates, and bioactivity. In those cases, we provide technical data drawn from our own trials, not literature. This hands-on knowledge helps customers navigate registration and regulatory review, as every raw material’s impurity profile needs clear documentation.
We go beyond compliance—managing waste and by-product streams, recycling solvents, and capturing off-gas from our exothermic steps with state-of-the-art scrubbers. This avoids community complaints, which helps maintain long-term relationships with our neighbors. Our teams handle spent acid and process water with on-site neutralization, reducing the risk of run-off or environmental citations that can disrupt both production and supplier trust.
During product transfer and storage, anti-static measures and batch segregation protocols prevent cross-contamination. Each shipping drum comes with tamper-evident seals, and outgoing loads include full tracking and reference to analytical data held in our secure database. Repeat customers often request batch reserves to support multi-year projects, and we keep digital and physical samples on hand for post-market investigation if unexpected issues come up during product use or regulatory filing.
For transport, our drums meet international specifications for moisture barrier and chemical compatibility. Fewer returns or rejected shipments mean less waste and more uptime—goals we take seriously as both manufacturer and partner in supply chains around the world.
Developing and producing 5-Acetylamido-2-Chloroaniline at commercial scale has meant constant learning. Periodic upgrades to reaction monitoring, better solvents for workup, and incremental improvements in washing steps came from both internal projects and feedback from customers troubleshooting unusual results. Even downtime offers opportunity: we use maintenance windows to audit raw material logs and adjust specifications based on performance reviews—not just on internal process, but on finished product performance in partner applications.
We also keep industry standards under review, comparing our manufacturing benchmarks to evolving regional and global guidelines. Real input from downstream users—process engineers and bench chemists—helps direct these evolution efforts, shaping future versions of the product to integrate new technical and regulatory requirements as they arise.
From years in the field, we see how crucial it is to answer questions frankly, share honest insights into process intricacies, and support customers past the sale. Many of our improvements in process safety, analytically confirmed purity, and packaging resilience started with conversations during audits, or post-shipment discussions on unforeseen problems. We document these lessons, circulate them among our technical teams, and adapt specifications so that our product fits changing needs, not just old habits.
People come to us when precision and reliability matter most. Unlike a trading company or reseller, our entire focus remains on this one segment of substituted anilines. We know the noise and variability that can creep in from off-shore, low-purity options, and we’ve helped customers untangle project delays or batch inconsistencies brought in from unchecked sources.
Trust grows from consistently meeting specifications and supporting customer success. Our systems prioritize early technical feedback and rapid response. If a formulator’s process calls for a special blend or more stringent impurity threshold, we can tailor our post-synthesis purification and share new analytical data. Our ability to answer for every detail of synthesis—from raw input to final QA—and to act directly, not through layers of intermediaries, sets the tone for true manufacturing partnership.
Working as a manufacturer brings a unique set of perspectives. Every day proves another chance to improve how we deliver 5-Acetylamido-2-Chloroaniline—safer, purer, and fit to the demanding processes that keep essential industries moving. The most telling feedback we get? At scale, when our compound keeps plants running on time, customers come back with new requests, not complaints. That’s the real mark of quality from the manufacturing floor.