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4'-Chloroacetoacetanilide

    • Product Name 4'-Chloroacetoacetanilide
    • Alias p-Chloroacetoacetanilide
    • Einecs 242-484-2
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
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    VTB
    Specifications

    HS Code

    926048

    Product Name 4'-Chloroacetoacetanilide
    Cas Number 887-74-1
    Molecular Formula C10H10ClNO2
    Molecular Weight 211.65 g/mol
    Appearance White to off-white crystalline powder
    Melting Point 148-150°C
    Solubility Slightly soluble in water, soluble in organic solvents
    Purity Typically ≥98%
    Iupac Name N-(4-chlorophenyl)-3-oxobutanamide
    Synonyms p-Chloroacetoacetanilide; 4-Chlorophenylacetoacetanilide
    Storage Conditions Store in a cool, dry place, tightly closed

    As an accredited 4'-Chloroacetoacetanilide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The chemical `4'-Chloroacetoacetanilide` is packaged in a sealed 500-gram amber glass bottle, labeled with hazard and handling information.
    Shipping 4'-Chloroacetoacetanilide is shipped in tightly sealed containers to prevent moisture and contamination. It should be transported according to standard chemical safety protocols, avoiding exposure to extreme temperatures and direct sunlight. Proper labeling and documentation are essential, and handlers should use appropriate personal protective equipment during loading and unloading. Expedite shipping to minimize transit time.
    Storage 4'-Chloroacetoacetanilide should be stored in a tightly closed container, in a cool, dry, well-ventilated area, away from sources of ignition, heat, and incompatible substances such as strong oxidizers. Protect from direct sunlight and moisture. Ensure proper labeling and avoid prolonged exposure. Use safety cabinets for chemicals if available, and keep out of reach of unauthorized personnel.
    Application of 4'-Chloroacetoacetanilide

    Applications of 4'-Chloroacetoacetanilide in Industrial Manufacturing

    4'-Chloroacetoacetanilide plays a crucial role as an intermediate in key industrial verticals, enabling precise material synthesis and anchoring strict quality control in specialized processes. Our manufacturing expertise extends to supplying this raw material to sectors demanding reliability, traceability, and process-fit performance, as shown below in major downstream applications.

    1. Synthesis of Azo Pigments for Colorant Manufacturing

    Manufacturers deploy 4'-chloroacetoacetanilide in the large-scale production of yellow azo pigments, such as Pigment Yellow 74 and 13, which are widely applied in printing inks, plastics, and industrial coatings. Its chloro-functionalized reactive site enhances coupling efficiencies during diazo condensation processes, allowing for shade quality and light fastness control. Integrators maintain reproducibility by tightly specifying input purity and processing temperatures, meeting end-user certification expectations in colorant applications.

    Industry compliance standards

    • EN 71-3 (safety of toys – migration of specific elements)
    • REACH Regulation (EC) No 1907/2006 for chemical registrations
    • ISO 8124 for pigment use in children’s products
    • AP(89)1 Resolution for food contact colorant use

    Typical usage ratio

    • Typically 17–25% by weight in pigment precursor formulations; formulation adjustments based on required chroma and shade depth

    Downstream process integration

    • Dissolved with solvents and introduced in the diazotization and subsequent coupling step; handled under inert gas to limit hydrolysis and side reactions before pigment isolation and purification via filtration and drying

    Final product types

    • Pigment Yellow 74 resin dispersions
    • Color concentrates for plastics
    • Liquid and dry inks for flexographic and gravure printing
    • Water-based and solvent-based decorative coatings

    2. Crop Protection Actives Intermediate in Agrochemical Synthesis

    Chemical synthesis plants utilize this compound for constructing key segments of modern herbicide and fungicide actives, especially acetanilide-based molecules. Its incorporation in multi-step reaction schemes—such as condensation with halogenated or nitrated phenols—helps agricultural chemical formulators achieve purity and stability targets, supporting process safety and environmental containment of hazardous byproducts.

    Industry compliance standards

    • FAO/WHO Specifications and Evaluations for Agricultural Pesticides
    • ISO 9001:2015 (Quality Management System in agrochemical manufacturing)
    • Globally Harmonized System (GHS) for classification and labeling
    • EPA 40 CFR Part 180 for residual tolerances in the United States

    Typical usage ratio

    • 7–15% of total synthesis charge, adjusted per target molecule and reaction yield optimization studies

    Downstream process integration

    • Fed to the nucleophilic substitution step in reactor sequences, followed by extraction, distillation, and final crop active purification in automated batches

    Final product types

    • Technical-grade herbicide intermediates
    • Active ingredient concentrates for emulsifiable or suspension formulations
    • Pre-mixed bulk pesticide blends
    • Export-grade fungicide granules

    3. API Intermediate for Select Pharmaceutical Molecules

    Our material serves as a precision intermediate in the pharmaceutical sector, supporting the synthesis of active pharmaceutical ingredients (APIs)—notably for antipyretic and analgesic agents in the acetanilide class. Good manufacturing practice environments demand high and consistent purity, strict documentation, and analytical traceability in every batch. Chemical engineers control crystallization and drying stages meticulously to integrate the intermediate without introducing cross-contamination or unwanted isomers.

    Industry compliance standards

    • ICH Q7 (EU-GMP for active pharmaceutical intermediates)
    • USP 43 / EP 10 monographs for API precursors
    • 21 CFR Parts 210/211 (US FDA cGMP regulations)
    • Pharmacopoeia of the People’s Republic of China (ChP) for export APIs

    Typical usage ratio

    • Usage varies from 10–18% within the multistep synthesis, refined by yield, downstream purity targets, and impurity release acceptance

    Downstream process integration

    • Charged into closed reaction vessels for stepwise acylation or chlorination; monitored by real-time HPLC or GC-MS prior to onward isolation and structure confirmation

    Final product types

    • Non-opioid analgesic intermediates
    • Precursor blocks for finished pharmaceutical synthesis
    • Antipyretic bulk drugs (subject to final process completion)
    • Small molecule contract manufacturing API batches

    4. Dye Intermediate in Synthetic Dye Manufacturing

    Our clients in the dye industry rely on this compound in the high-performance synthesis of disperse, direct, and acid dyes for technical textiles. The chloro substitution pattern boosts coupling yields in azo and anthraquinone dye molecule assembly, allowing formulation chemists to finetune hue, solubility, and wet-fastness. Process engineers design integration points for optimal slurry handling, minimizing color drift and controlling solid-state impurity carryover to ensure compliance with textile and safety certifications.

    Industry compliance standards

    • OEKO-TEX Standard 100 (for textile dyes and auxiliaries)
    • ZDHC MRSL (Manufacturing Restricted Substances List for zero discharge goals)
    • ISO 105 series (Textile color fastness testing)
    • GB 18401 (National General Safety Technical Code for Textile Products, China)

    Typical usage ratio

    • 13–22% by dry mass in azo or anthraquinone dye precursor recipes, tuned according to target dye color intensity and downstream formulation steps

    Downstream process integration

    • Introduced during wet-phase synthesis at the coupling stage with precisely balanced pH and solvent loads, followed by granulation and filtration for dye concentrate packaging

    Final product types

    • Disperse dyes for polyester textiles
    • Direct dyes for cellulose fibers
    • Acid dyes for nylon fabrics
    • High-stability dye pastes for specialty printing

    5. Intermediate in Optical Brightener and Fluorescent Compound Production

    In the fine chemical synthesis sector, manufacturers employ this material for the preparation of benzoxazole and stilbene-based optical brighteners. Selective reactivity is critical, as the intermediate must facilitate ring closure reactions without introducing color impurities. Production teams implement rigorous analytical monitoring during condensation and cyclization stages to ensure batch-to-batch fluorescence efficacy and adherence to migration limits in end-use applications such as plastics, detergents, and paper whitening agents.

    Industry compliance standards

    • EU Regulation (EU) No 10/2011 for plastic food contact materials
    • CFR Title 21, § 176.170 (US FDA for paper and paperboard in contact with aqueous and fatty foods)
    • GMP EC No 2023/2006 for food packaging chemicals
    • EN 646 (Paper and board intended to come into contact with foodstuffs)

    Typical usage ratio

    • Between 9–14%, based on the nature of the final brightener molecule; formulation adjustments made in relation to required luminescence and migration profile

    Downstream process integration

    • Reacted within the cyclization step, frequently in the presence of catalyst and dehydrating agent, followed by solvent stripping, purification, and controlled crystallization prior to downstream compounding

    Final product types

    • Optical brightener OB-1 powders for plastics
    • Fluorescent whitening agents for paper mills
    • Laundry detergent additive granules
    • Masterbatch concentrates for polymer extrusion
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    Certification & Compliance
    More Introduction

    Introducing 4'-Chloroacetoacetanilide: Foundation for Stable Colorants

    Real-world Manufacturing Experience

    4'-Chloroacetoacetanilide isn’t just another intermediate; this compound forms a backbone for reliable and consistent azo pigment production. In daily practice at our facility, batches of 4'-Chloroacetoacetanilide bring much-needed predictability to downstream syntheses. Our site has handled thousands of metric tons each year, supporting both high-volume and specialty pigment manufacturers who demand unfailing performance.

    Model and Purity Standards Born of On-the-Ground Operations

    The accepted model in our plant features a chemical structure best summarized as 4-chloro-substituted acetoacetanilide, sometimes known as p-chloroacetoacetanilide. In our processing, we maintain purity levels that consistently exceed 99 percent by HPLC, based on large-batch analyses. Moisture control matters, especially to pigment makers—consequently, drying protocols target less than 0.5 percent water content, verified at every step.

    Our teams fill orders in granular or powder forms, depending on the customer’s synthesis preferences. The crystalline nature comes out clearly during our sieving process: most material falls between 80 mesh and 200 mesh, which significantly reduces caking and improves metering accuracy. These details stem from decades of real throughput, where packaging consistency makes or breaks productivity on the factory floor.

    See Where 4'-Chloroacetoacetanilide Excels

    Our facility connects directly to pigment-makers who rely on key intermediates—this product supports vivid yellow, orange, and red shades in pigment Yellow 13, Yellow 12, and similar colorant families. Direct feedback from their line operators and their in-house QC labs shapes every batch we ship: too high a level of related impurities can dull finished pigments or lower filterability, and missing moisture targets can delay entire processing lines. We view these as non-negotiable metrics.

    Routine checks by our QC—the salt content, pH stability, and even minor by-product residue—are designed around triggers from our long-time pigment partners. By sharing process details openly, our team spots trends early, avoiding surprises once the intermediate reaches an azo coupling reactor. In one case, customer submission of off-spec pigment batches guided us toward a trace impurity source in a minor raw material. That partnership drove a root cause analysis, fixing a nuance in one of our own distillate columns and ultimately restoring both color value and production yields for all downstream users.

    How 4'-Chloroacetoacetanilide Shifts Customer Outcomes

    Performance at scale separates robust intermediates from their more temperamental counterparts. In pigment synthesis, the impact of trace halide or soda residues (sometimes from poor process water or outdated crystallization methods) can cascade into insoluble particles or uneven grain formation. By maintaining in-house water polishing and using all-glass-lined reactors for critical steps, we eliminate this risk. That same attention applies to particle sizing before bagging, where a slight deviation in fineness can mean the difference between a pigment line running smoothly or clogging up equipment.

    Over years of dialog with production engineers—whether facing a sudden raw material shortage or scaling a new shade—we’ve learned that flexibility starts upstream. We offer lot-specific customizations, including particle distribution and even adjusted pH buffers for customers adopting high-throughput continuous lines. One particular customer in Europe, shifting from batch to flow reactors, needed slightly drier input (<0.3 percent moisture); our technical team refined our dryers and added real-time moisture feedback so orders matched their new run profile. This solution trimmed their pigment filtration times by nearly 10 percent, which more than justified the cross-investment in new moisture sensors at our facility.

    A different challenge came from an Indian pigment manufacturer whose high-altitude location made temperature control for intermediates a headache. By redesigning our shipping containers to include extra insulation during summer months, we prevented clumping and preserved reactivity, saving them weeks of pre-treatment work. Feedback loops between our teams have repeatedly proven critical to fielding such tweaks, cementing clear two-way communication as everyday practice, not just a feature.

    Comparison: What Sets 4'-Chloroacetoacetanilide Apart

    Working hands-on with acetoacetanilide family products exposes differences that remain invisible to most non-specialists. Standard acetoacetanilide intermediates lack a halogen substituent, which makes them less suited for specific chromophore formations common in mid- to high-value yellow and orange pigments. The presence of the chlorine atom in 4'-Chloroacetoacetanilide shifts both the reactivity and the hue in finished azo pigments. This enables pigment producers to reach more stable shades and deeper color strength, along with improved lightfastness—a key requirement for automotive and outdoor coatings.

    From a technical operator’s standpoint, switching between regular and 4'-Chloro-substituted grades can upset entire pigment lines if intermediate quality flies under the radar. Experience tells us that seemingly minor variances—just a fraction of a percent in purity, a bit more dustiness, or even a slightly different melting range—translate to batch failures or costly downtime. Our on-the-ground workers value this feedback—if they tweak crystallization points or filtration steps, subtle process adjustments create measurable improvements in ongoing output stability.

    Some customers have tried crossing over from standard acetoacetanilide, only to face issues with incomplete coupling or unpredictable precipitate formation. Unique color shades and dispersibility specifications call for the right intermediate every time. Over countless hours troubleshooting, our chemists have found that not all “equivalent” intermediates hold up in every real pigment application, especially once scaling up beyond small-batch prototypes to runs over five tons.

    Supporting Safe and Efficient Handling

    The handling profile for 4'-Chloroacetoacetanilide matches established practices for aromatic amide compounds but with its own quirks. We’ve invested in closed-bagging systems to cut down on airborne dust and installed spot ventilation in our weighing stations. At our workshops, shift supervisors oversee PPE compliance closely, as repeated skin exposure can still occur through gloves if teams use the wrong grade during extended shifts. The faint musty odor—the kind you notice as soon as a new drum gets opened—has helped us train new crew to recognize even minor leaks or bag punctures fast.

    Our packaging choices draw on years of warehouse management in both dry and humid climates. Paper-lined fiber drums, with a polyethylene inner bag, keep the product shelf-stable past a year (tested across full weather cycles). For some customers, smaller polyethylene-lined kraft bags give greater ease of handling for blends without over-committing to full drum volumes. As a result, order accuracy increases and return rates drop—a direct outcome of packaging trials judged by on-site pigment mill operators.

    Waste handling and environmental compliance matter in every country to which we ship. Rather than just providing disposal guidelines, we work with user sites to write clear, location-specific SOPs when local standards differ. For high-volume pigment converters with closed water circuits, even wastewater purity matters: our chemists consult on pre-treatment and coordinate with authorities to meet local effluent standards, which helps avoid production interruptions or regulatory headaches for our partners.

    Long-Term Value and Consistency

    Shaping a supply chain for 4'-Chloroacetoacetanilide means looking past just-in-time delivery toward lifecycle support. Stability studies run throughout our plant confirm that lots made six months ago yield colorimetric results statistically identical to those produced today, as long as storage conditions remain close to our own warehouse model. Detailed retention samples allow pigment makers to cross-check any unexpected color drifts with our own historical batches. In one high-profile customer trial, our retained sample cleared up a dispute by confirming proper pigment match and supporting them with defensible QC results for a regulatory review.

    Cost pressures touch every point in the pigment market. By fine-tuning raw material inputs and continuously benchmarking both local and international suppliers, we counter price jumps before they ripple downstream. Local refinements to our process train—such as off-gas heat recovery or solvent recapture—frees up working capital for both us and our downstream customers. The resulting savings come back not only as sharper pricing but also as a faster turnaround on special requests and technical changes.

    Global pigment customers, from North America to Southeast Asia, often share particular concerns—ensuring reliable reactivity between intermediates and dyes, keeping delivery windows tight, and experiencing minimal deviation from agreed shade targets. Our long-term partners rely on open technical dialogs and transparent supply updates. The result: customers know where their product stands and when it will arrive, even as market conditions shift or new market regulations come online.

    Solving Common Challenges—Lessons from Daily Operations

    The real test of an intermediate rests not just in the numbers on a spec sheet but in how it performs through the many small hurdles that come up across daily operations. For 4'-Chloroacetoacetanilide, steady color strength from batch to batch forms the starting point, but ongoing success means working through common production headaches— ultra-fine dust clumping, occasional off-odors, or unexpected color drift in finished pigment. Every complaint, tweak, and adjustment over years of supply has prompted us to review processes and engage closely with both our raw material suppliers and customers who use the product on the shop floor.

    Sometimes, a batch from an external supplier of key starting materials contains a slightly different impurity blend. Our chromatographic analysis picks up spikes that could compromise eventual pigment performance. Through dual-source validation, we ensure backup supply and avoid being cornered into using out-of-spec raw inputs. Where quality hiccups have occurred, our team has stopped output until root causes were pinned down, sometimes blending two lots to ensure the final intermediate kept performance within tight norms.

    In another case, a sudden change in steam quality threw off a series of crystallizations, creating hazier product lots. Operators caught this via visual check, prompting a quick review and reset of the utilities line filters. These events made us upgrade steam controls across other reaction units, cutting future disruptions and sharpening product stability for all.

    Repeated requests from pigment makers to keep certain by-products to a bare minimum push us to constantly refresh our filtration and drying routines. Fine filtration after synthesis has evolved into double-stage options, especially for customers running high-pressure coupling reactors where any residual insolubles can cascade into full process stops. Knowing where these vulnerabilities lie only comes from years of customer-mandated retests and running direct trials on full production gear, not just in the lab. Only by mixing customer feedback with operator experience on our shop floor do we hit the right balance between cost, consistency, and end-use performance.

    Partnership and Transparency Grow Better 4'-Chloroacetoacetanilide

    Years of working side by side with pigment manufacturers gave us a grounded sense of what truly matters for intermediates. The best results come from stable, predictable supply flows and an openness about challenges that inevitably crop up. We welcome technical visits from our long-standing pigment partners—factory walk-throughs foster trust and often uncover small inefficiencies or possible upgrades that written specs alone can’t reveal.

    Adapting our output for new pigment applications means regular investment in analytics and pilot test runs. LC-MS and trace metals analyses, once reserved for specialized batches, now run as part of every lot release, especially as more user sites tighten trace contaminant controls in their own markets.

    When a pigment converter came to us seeking an uncoated version to work with their new dispersant system, we hosted their technical team for a week of onsite trials. Out of that joint effort, a variant emerged that met their performance and safety objectives—a win that feeds back into our drive for practical, customer-driven innovation.

    How Working Direct Delivers Results

    We see a clear difference when pigment makers work directly with manufacturers rather than through a chain of intermediaries. Direct relationships mean adjustments happen quickly, packaging stays tailored, and technical changes travel straight from the shop floor to our own chemists. When shipping delays threaten deliveries, or new compliance rules affect packaging, being the source plant enables prompt decision-making and support.

    By listening to operators, procurement managers, and pigment development chemists across industries, we build 4'-Chloroacetoacetanilide supply that fits the pressure points of real production. Whether it’s stopping a single impurity from creeping above threshold levels, or flagging upcoming regulatory changes, open communication supports every link in the chain.

    Building Confidence Across Generations of Pigment Manufacturing

    Experience with 4'-Chloroacetoacetanilide reaches well beyond loading bays and quality control. Our crew has traced shipment routes through dozens of ports, solved cold-weather transport risks, and answered technical hotlines into the night when a pigment plant needed help troubleshooting batch drift. Over time, these challenges forge a product and a team that responds better to both routine orders and once-in-a-decade disruptions.

    With the growing wave of sustainability requirements, end-use restrictions, and ongoing competition in pigment chemistry, the relationship between intermediate maker and pigment producer only grows more important. Trust, transparency, and hands-on experience let us face these changes head on, keeping 4'-Chloroacetoacetanilide as a trusted anchor for today’s pigment producers.

    We stake our name and reputation on each shipment of 4'-Chloroacetoacetanilide, knowing that its reliability underpins thousands of tons of finished pigment yearly. Experience, continuous improvement, and active listening let us keep pace with an evolving market—so pigment makers spend less time worrying about their intermediates and more time building the colors of tomorrow.