| Names | |
|---|---|
| Preferred IUPAC name | N-Phenyl-3-oxobutanamide |
| Other names | N-Phenyl-3-oxobutanamide Acetoacetanalide 3-Oxobutanilide N-Phenylacetoacetamide Acetoacetic anilide |
| Pronunciation | /əˌsiːtoʊˌæsɪtəˈnɪlaɪd/ |
| Identifiers | |
| CAS Number | 102-01-2 |
| Beilstein Reference | 1208737 |
| ChEBI | CHEBI:22199 |
| ChEMBL | CHEMBL185472 |
| ChemSpider | 6199 |
| DrugBank | DB13113 |
| ECHA InfoCard | 100.046.899 |
| EC Number | 204-500-1 |
| Gmelin Reference | 715984 |
| KEGG | C06500 |
| MeSH | D000079 |
| PubChem CID | 9997 |
| RTECS number | AD1925000 |
| UNII | 422BC5X9RN |
| UN number | UN2811 |
| Properties | |
| Chemical formula | C10H11NO2 |
| Molar mass | 177.21 g/mol |
| Appearance | White to off-white crystalline powder |
| Odor | Odorless |
| Density | 1.18 g/cm³ |
| Solubility in water | Insoluble in water |
| log P | 1.6 |
| Vapor pressure | 0.0000133 mmHg at 25°C |
| Acidity (pKa) | 8.98 |
| Basicity (pKb) | 12.16 |
| Magnetic susceptibility (χ) | -66.0·10⁻⁶ cm³/mol |
| Refractive index (nD) | 1.5700 |
| Dipole moment | 3.94 D |
| Thermochemistry | |
| Std molar entropy (S⦵298) | 357.8 J·mol⁻¹·K⁻¹ |
| Std enthalpy of formation (ΔfH⦵298) | -210.6 kJ/mol |
| Std enthalpy of combustion (ΔcH⦵298) | -3321 kJ/mol |
| Hazards | |
| Main hazards | Harmful if swallowed. Causes skin and eye irritation. |
| GHS labelling | GHS02, GHS07 |
| Pictograms | GHS07 |
| Signal word | Warning |
| Hazard statements | H302: Harmful if swallowed. |
| Precautionary statements | P261, P280, P305+P351+P338, P337+P313 |
| NFPA 704 (fire diamond) | 2-1-1 |
| Flash point | > 185°C |
| Autoignition temperature | 425°C |
| Lethal dose or concentration | LD50 (oral, rat): 600 mg/kg |
| LD50 (median dose) | LD50 (median dose): Oral-rat LD50: 940 mg/kg |
| NIOSH | SN4200000 |
| PEL (Permissible) | Not Established |
| REL (Recommended) | 0.5 mg/m³ |
| Related compounds | |
| Related compounds | Aniline Acetanilide Acetylacetone Acetoacetamide Ethyl acetoacetate |
| Property | Technical Commentary |
|---|---|
| Product Name & IUPAC Name |
Product Name: Acetoacetanilide IUPAC Name: N-phenyl-3-oxobutanamide Industrial batches use the IUPAC name primarily for regulatory submissions, while 'acetoacetanilide' remains standard across order specifications and batch labels. Naming precision influences raw material traceability and inventory separation, especially with mixed aromatic amide stocks. |
| Chemical Formula |
C10H11NO2
Molecular structure guides solvent choice and reaction parameters. Grade-specific variations in substitution or hydration state may affect formulation behavior, but C10H11NO2 remains the standard molecular signature for this core product. |
| Synonyms & Trade Names |
- N-Phenylacetoacetamide - Acetoacetylanilide - AAA Procurement and logistics teams track synonyms in both procurement contracts and customs documentation. Regional trade names may influence product acceptance in certain regulatory jurisdictions. Some downstream applications reference historic nomenclature in technical documentation, and inconsistencies may create confusion if not internally cross-referenced. |
| CAS Number |
102-01-2
Batch traceability, regulatory notifications, and global safety filings align on the CAS number. Minor differences can exist in reference listings depending on hydration or formulation grade; consistency in CAS identification remains an industry-wide audit point. |
| HS Code & Customs Classification |
2924.29 Manufacturers must monitor both international Harmonized System code assignments and country-specific subcategories. Classification errors can delay shipments at port, and authorities sometimes re-categorize based on purity, grade, or end-use declaration. |
Acetoacetanilide typically forms as crystalline solids. The final appearance depends on both synthesis route and downstream purification. Industrial batches may show ivory to pale yellow crystals, a result of trace reaction byproducts, though higher purity material approaches near-white. No pronounced odor arises under standard storage. The melting point varies with grade and lot history; trace impurities and moisture uptake can shift melting behavior, affecting downstream formulation and granulation.
Exact numerical values show batch-to-batch variation linked to impurity profiles. Thermal properties are sensitive to both residual solvent content and purification level. Practical handling in bulk manufacturing relies on knowledge of the material’s typical thermal range, not single-point data, to guide safe processing and avoid partial melting or decomposition. Dense packing may affect heat transfer during storage or further processing.
Acetoacetanilide demonstrates stability in dry, cool, low-light conditions. Exposure to strong acids or bases, or prolonged heating above typical process temperatures, accelerates breakdown. Oxidizing agents and moisture promote hydrolysis or oxidation, factors considered during selection of controls for both process and storage. Technical teams regularly assess lot-specific reactivity against known stresses to ensure formulation safety.
Solubility varies widely by solvent and grade. Industrial solution preparation protocols adjust solvent choice, temperature, and pH based on impurity load and end-use demands. In applications requiring precise solution concentration, preliminary solubility tests confirm performance targets to minimize batch variability.
Specification ranges depend on intended application and customer contract. Standard grades are defined by content purity, typically ascertained by high-performance liquid chromatography or titrimetric analysis. Industrial and ultra-pure grades may require additional scrutiny for color index and insoluble matter.
Detection and restriction of residual raw material, solvent carryover, and process byproducts form the core of quality assurance. Typical impurities include ortho- or para-nitroaniline, acetoacetic acid esters, and unreacted aniline. Actual impurity tolerances reflect both regulatory expectations and downstream process sensitivity, as agreed with the buyer or internal quality standards.
Accepted methods involve UV/Vis spectrophotometry, melting range determination, and chromatographic assay. The choice of analytical techniques is grade-specific, with pharmaceutical or specialty applications following stricter protocols. Each batch undergoes at least identification, purity quantification, and appearance verification prior to release.
Selection of aniline and diketene (or alternative acetoacetate equivalents) governs much of the process yield and impurity burden. Sourcing prioritizes consistent specification compliance, traceability, and low trace metal content when targeting sensitive applications.
A condensation between aniline and acetoacetic ester in controlled conditions produces acetoacetanilide. Reaction efficiency increases with optimized molar ratios and stepwise addition to manage exotherms. Temperature regulation limits side reactions that create byproduct color bodies. Route modifications exist based on raw material availability and regional regulatory priorities.
In-line monitoring includes reaction temperature, pH, and end-point clarification. Purification relies on staged recrystallization and filtration; solvent washing adjusts to lot-specific impurity loads. Residual solvent removal is particularly critical for product destined for regulated applications.
Batch-to-batch consistency assessment focuses on main assay, impurity profile, color, and moisture. Release criteria reflect both customer requirements and internal specifications. Documentation includes traceability from raw material through final lot, plus all analytical records.
Acetoacetanilide serves as a nucleophile in coupling, acylation, and condensation reactions, widely employed in dye synthesis, pharmaceuticals, and pigment production. Alkylation and halogenation potential depends on substituent sensitivity and reaction conditions.
Common protocols favor mild base catalysts and alcohol or ether solvents, with process temperature chosen according to product performance needs and impurity minimization. Specific downstream chemistry may adjust solvent or catalyst to influence selectivity or yield.
Downstream conversion targets include azo dyes and pigment precursors, as well as modified acetoacetyl derivatives tailored for advanced organic synthesis. Derivative selection depends on customer synthesis schemes and regulatory compliance landscape.
Best results arise with storage in sealed containers under cool, dryness-controlled conditions, away from direct light. Moisture and ambient humidity drive hydrolysis and off-color formation, especially in lower grades. For high-purity grades, nitrogen blanketing may be specified.
Material compatibility with high-density polyethylene, glass, and lined-steel containers is common, but storage vessel choice adapts to purity requirements and volume. Exposure to unlined metal generates risk of impurity introduction.
Shelf stability reflects environmental control and grade purity; lower grades or uncontrolled environments may generate discoloration, odor changes, or caking. Deviation from original appearance signals need for quality reevaluation before use in critical synthesis.
Exact hazard categorization depends on impurity content and regional law. Common hazards involve skin and eye irritation risks, but full toxicological data sets are required for specialty uses and regulatory submissions.
Handling recommendations emphasize avoidance of dust formation, skin contact, and inhalation. Eye and skin protection measures align with standard fine-organic practice. Spill management involves solid containment and careful collection, typically without water contact.
Toxicity figures, such as LD50 or occupational exposure limits, depend on both product grade and authoritative guidance. In-plant air monitoring and personal protective equipment requirements align with current toxicological findings and site-specific risk assessment.
Production volume for acetoacetanilide depends on downstream demand in pigments, agrochemicals, and intermediate chemicals, with capacity distributed across East Asia, South Asia, and selected sites in the EU and North America. Capacity allocation between grades reflects end-user requirements, batch scale, and equipment setup for each campaign. Shutdowns for line cleaning, equipment maintenance, or regulatory upgrades—often scheduled in Q3 or during raw material price spikes—change batch slotting and finished goods lead time. Periodic regulatory compliance audits, especially in the EU and US, sometimes require batch retesting or even temporary output reductions.
Standard lead time for shipment varies by customer release criteria, grade, and destination market. Typical lead time falls in the range of four to six weeks for regular grades when starting from existing inventory or active production lines. Custom grades or those requiring enhanced impurity control extend the lead due to additional purification or confirmation testing. MOQ is defined by grade, packaging type, and logistics conditions—palletized shipments differ from bulk lots due to downstream production or distribution needs.
Packaging is grade- and destination-specific. Major volumes ship in 25 kg woven bags, jumbo sacks, or fiber drums. For export to regions with differentiated regulatory or anti-contamination controls, packaging selection factors in barrier protection and traceability—requirements for certificates of compliance or tamper-evident closures increase for pharma-intermediate and pigment applications. Non-fiber and re-bulked options are generally subject to pre-qualification of the downstream user’s repacking site.
Freight arrangements depend on region and value-chain role. FOB contract terms apply to most East Asian routes, while DAP/DDP options see use for regulatory-stringent markets like the EU, with documentation tailored to REACH status or downstream notification requirements. Payment terms respond to risk profile, historical credit, and contractual length. Short-cycle or spot trades lean toward advance payment or letters of credit; annual contracts with established counterparties may extend to 30-60 day credit terms, subject to internal credit assessment.
Raw material inputs—aniline, diketene, acetic acid—form the bulk of variable cost structure. Diketene sourcing dominates cost sensitivity as its own precursor (acetone, acetic acid, energy consumption) introduces volatility seen particularly during seasonal turnarounds or environmental inspections in producer geographies. Differences in supplier integration (on-site synthesis of diketene versus merchant purchase) generate cost stratification between producers, especially visible at scale. Overhead—energy, labor, effluent treatment—varies with installation age and region.
Raw materials follow international feedstock prices (especially benzene and acetone), Chinese local capacity utilization, occasional plant shutdowns due to environmental controls, and logistics disruptions. Price shifts can trace back to both planned and unplanned outages of basic chemicals in China and India, port congestion, or abrupt changes in agricultural demand for end-use. Policy-driven environmental clampdowns remain the unexpected driver for both price spikes and interruptions.
Grades differ in cost due to purification complexity, impurity profile, and batch release standards. Higher purity requirements designed for pharma intermediates or pigment dispersions increase production time, solvent cost, and QC load. Major certifications—ISO, GMP, or end-user audited supply—generate direct and indirect cost increases from documentation, process validation, and retention sample reserves. Price slopes reflect these input and compliance cost drivers.
Core pricing reflects grade, purity band, and certification load. Industrial grades with baseline purity rely on standard process routes; these batches clear with broader impurity range and simpler packaging, pricing at the lowest tier. Color-critical or low-iron pigment intermediates command a mid-tier premium for improved impurity controls and pigment compatibility. Pharma and other high-purity application batches require segregated production, frequent analytical testing, extended batch holds, and traceable packaging with full data packs, reflected in a higher price per kg.
Acetoacetanilide production capacity centers in China and India, with Europe and Japan sourcing both domestically and from imports for specialty or registered grades. Global volume continues to follow pigment and agrochemical intermediate trends, with modest demand expansion projected from polymer and electronics additive sectors.
In China, dominant production triggers global export pricing and influences supply stability. India maintains significant captive use but limited export grade volumes. The EU and US primarily import for downstream value addition, with compliance or pre-registration placing a premium on batch traceability and documentation. Japan sources domestically for tight application uses, importing only select intermediates. Shifts in Chinese environmental enforcement create the most significant swings in world supply and price.
Projecting to 2026, core risks stem from continued Chinese raw material and emission regulatory changes, global logistics disruptions, and increased compliance requirements in the EU for imported chemicals. Current trend analysis, absent new capacity expansions or regulatory shocks, points to continued price differentiation between industrial and high-purity grades, with upward adjustment risk centered in H2 for each of the next two years, particularly if agricultural or pigment intermediates surge.
The above commentary draws from internal batch costing, shipment logs, compliance documentation, and public regulatory filings, cross-referenced with published raw material price indices (Platts, ICIS), and verified through direct customer supply chain feedback and regional market liaison offices.
Recent raw material price surges in East Asia resulted in batch slotting realignment and temporary suspensions of export offers, particularly from smaller capacity-dedicated lines. Major pigment end-users in the EU and India responded by revisiting buffer stock policy and forward contracting.
New REACH notification requirements for imported organics—acetoacetanilide included—add batch documentation and impurity spectrum transparency. In the US, TSCA-related site audits for imported chemicals shifted release timing and created more frequent re-testing requests for importers. India and China both upgraded environmental discharge and occupational exposure documentation for major sites, requiring additional process monitoring and effluent logs at the producer site.
Increased frequency of batch certification, upgraded batch traceability for pharma and pigment customers, and advance notification on raw material sourcing changes shape current supplier response. Risk mitigation includes dual sourcing of critical raw materials, more stringent internal release criteria for high-value markets, and retention of extra buffer stocks for structural intermediates sensitive to upstream feedstock or logistics interruptions.
Acetoacetanilide operates as a key intermediate in the synthesis of organic pigments, dyes, agrochemical actives, and select pharmaceuticals. Dye manufacturers utilize it for coupling components in the production of azo pigments and inks. In the agrochemical sector, formulators employ specific grades as building blocks for pesticide and herbicide actives due to its stability and reactivity profile. Pharmaceutical-grade batches support specialized API production, where raw material purity and trace-level impurity control become critical. Some industries use technical grades for coatings or polymer modifiers, where color and by-product management are less critical than for pigments or pharma.
| Application | Matching Grade Types | Property Focus |
|---|---|---|
| Pigment & Dye Synthesis | Pigment Grade, High-Purity Technical Grade | Color index, insolubles content, by-product control, solubility consistency |
| Agrochemical Synthesis | Technical Grade, Agro Grade | Specific organic impurity profile, trace residual solvents, batch reproducibility |
| Pharmaceutical Intermediates | Pharma Grade | Purity profile, heavy metal trace analysis, low endpoint deviation, documentation traceability |
| Specialty Coatings & Polymers | General Technical Grade | Crude purity, moisture content, color tolerance |
In pigment applications, color index and insolubles content dictate usability. Dye producers typically set stricter ranges for organic by-products, as minor structural variations can alter final product hue and performance. Agrochemical grade requirements prioritize consistent impurity fingerprinting, since downstream efficacy and regulatory acceptance can react sensitively to specific organic residuals. Pharmaceutical applications demand rigorous heavy metal screening and documentation tailored to international audit requirements. Polymer and coatings producers generally tolerate wider variation in color and combined impurities if these do not interfere with finished product clarity or reactivity.
Clarify the exact downstream use. For pigment dispersion, focus on high color reproducibility and low insoluble matter. For an agrochemical route, identify if the final molecule is regulated for food contact or open field use. Pharmaceutical users should specify API precursor versus reagent-grade requirements.
Check if application mandates observance of national or regional purity standards. EU and US customers often require compliance documentation and traceable batch analysis, particularly for pharma and agro uses. Pigment users in export markets may request REACH or TSCA statements as part of qualification.
Determine the degree of organic and inorganic purity required for the downstream process. Pigment and pharma sectors tend to request analytical breakdowns of major and minor impurities, while coating and commodity users may select based on cost-performance balance. For high-sensitivity chemistries, define maximum allowable levels for key by-products and trace elements.
Align required volume with budget and lead times. Higher-purity and fully documented grades come at a premium due to lower allowable deviation, extended purification, and batch-wise analysis. Technical grades suit bulk applications where small property shifts remain manageable.
Industrial users are advised to qualify material with process-scale testing prior to regular adoption. Request a representative batch sample, validate it in the end-use process, and evaluate batch-to-batch uniformity if longitudinal production is planned. Feed results back to the manufacturer to refine grade-case fit or establish additional contract-specific testing if intermittent deviations impact downstream systems.
Production of acetoacetanilide relies on a structured quality management framework. Our facility adheres to established system certifications that are routinely audited by both internal and external bodies. Certifications for quality management underpin batch consistency, documentation traceability, and supplier auditing—especially important since diverse raw material lots can introduce batch-to-batch variability in solid-state chemicals. Regular training and process requalification help maintain current certification status, with all audit trails securely archived for regulatory or customer review.
Certification requirements often originate from specific customer application areas such as coatings, dye intermediates, or pharmaceutical synthesis. Available grade certifications may include compliance with sector-relevant regulations if validated—subject to customer audit and specific product application. Certificates of Analysis, batch release documents, and compliance statements are issued per shipment, describing the key controlled characteristics for each lot. Request-based documentation can include origin, impurity profiles, and any process or grade-specific declarations where applicable.
Document control underpins every lot released. Typical documentation includes Certificate of Analysis, Material Safety Data Sheet, and test reports based on in-house validated methods. Technical data sheets reflect routinely updated process data, though detailed impurity spectra or custom reports are only provided where justified by use-case or regulatory demand. Special sample reports, residual solvent statements, and batch history can be supplied for qualifying purchase or audit requests.
Production scheduling matches annual planning with orders, market demand, and raw material procurement contracts. Core production lines specialize in continuous batch processing for high-demand applications, while pilot-scale lines support smaller-scale or custom grade projects. We continually assess line allocation for acetoacetanilide against order trends to provide buffer stocks and address demand spikes. Cooperation plans offer spot purchase, framework, and yearly fixed-term supply arrangements to fit different buyer logistics or budgeting realities.
Consistent supply flows from tiered sourcing of key precursors and diversified utility management at the plant level. Process yield and in-process control analytics govern how rapidly and stably each batch reaches release. Peak seasons or unplanned shutdowns can affect output, but contingency holding and alternate line activation bolster lead time and shortfall risk. Our technical staff communicate real-time regarding schedule adjustments or unusual out-of-spec challenges should they arise mid-process.
Sample arrangements align with outbound logistics and compliance demands. Requesting technical grade samples involves sharing end-use, specification requirements, and shipping preferences. Standard samples receive full test data upon delivery; non-standard or pre-commercial requests may require additional lead time for custom analytics or smaller production campaigns. Pre-shipment storage and handling conditions rely on grade-specific sensitivities, shared with the customer for representing true production-scale performance.
Customizing cooperation supports diverse procurement models from long-term consignment to just-in-time orders or consignment stock programs. Customers with recurring requirements can lock allocations across quarters, while project-driven buyers typically engage on call-off or demand-pulled schedules. Direct plant-to-customer technical exchanges provide transparent planning for transitions between grades or process routes. Downstream users benefit from material reservation logic, priority production slots, and documented change control if formulation or regulatory shifts require batch process adjustment mid-contract.
In-house research has focused on optimizing acetoacetanilide synthesis routes to balance purity, yield, and batch reproducibility. Most technical teams continue to refine catalytic conditions and raw material qualification, as variations in aromatic amine sources or diketene quality often lead to shifts in impurity profiles. Analytical groups pay close attention to both process- and storage-induced hydrolysis products, since even low-level byproducts impact downstream pigment performance or polymer interactions.
End-use industries continue to demand acetoacetanilide grades suited for high-performance pigment intermediates, advanced coatings, and specialty adhesives. Technical development groups in pigment R&D are examining how acetoacetanilide-derived structures enhance color fastness and compatibility in waterborne and solventborne systems. In resins and polymers, application trials assess the impact of residual water and side-reaction traces on cross-linking behavior. Some downstream users experiment with acetoacetanilide in pharmaceutical intermediates, but regulatory and purity needs in these projects raise new analytical challenges.
Manufacturing teams consistently address how to maintain impurity levels, especially residual diketene, at levels required for high-end pigment or resin markets. Side reactions during synthesis produce regioisomers and oligomers affecting color development and dispersion. Quality control implementation of real-time spectrophotometry (or, in some lines, HPLC) reduces batch-to-batch performance drift. Breakthroughs have come from closed-loop feedback on reactor temperature and pH control, shrinking byproduct variability. Some plants explore continuous processing to stabilize output, but batch adjustments remain necessary for different specification grades.
Acetoacetanilide demand may see steady growth from pigment and coating segments, driven by rising regulatory or performance requirements on pigment intermediates and resin cross-linkers in emerging economies. Volume shifts depend on region- and grade-specific adoption in compliant coatings and specialty polymer sectors. Customer requests increasingly cite downstream traceability and fit to green chemistry roadmaps, signaling stronger demand for both process data transparency and lower environmental release.
Next-stage process upgrades focus on cleaner synthesis routes, with fewer waste streams and more robust online monitoring. Technical teams expect to implement more advanced process analytical technology (PAT) to detect off-spec batches earlier. Tailoring process conditions for low impurity, low-odor, or low-residual-solvent grades becomes a differentiator as downstream regulatory scrutiny rises, particularly entering electronics and specialty markets.
Process management groups investigate solvent recycling, reduction of water and energy consumption, and minimization of vent losses. In-plant trials with alternative base catalysts or greener acetoacetylation agents take place, aiming to reduce the overall carbon footprint and eliminate persistent impurities. Final grade choice often reflects customer environmental compliance requirements; therefore, collaboration on disclosed impurity and emission profiles has increased relative to previous years. Continuous dialogue with application partners guides the adoption of new sustainable practices and materials stewardship.
Process and quality engineers offer direct technical consultation to assist customers during formulation changes or regulatory requalification. Dedicated staff analyze how specific impurity clusters or water content relate to end-use reactivity or compatibility, supporting batch selection for targeted applications. For specialized grades, tailored advice covers shelf-life stability under customer-specific storage and handling conditions, linking observed property changes back to manufacturing and packaging practices.
Technical teams routinely collaborate on application optimization: pigment makers, for example, often require joint lab scale-up studies to correlate impurity fingerprints with color outcomes or dispersion stability. Polymers and adhesives groups receive comparative data on different production lots to fine-tune curing processes or cross-linker efficiency. Support extends to adapting supply and batch characteristics for regional or plant-specific requirements, especially where downstream process parameters are sensitive to residual contaminants.
Quality assurance groups commit to investigating deviations reported by customers, both through off-site and on-site sampling and analysis. Comprehensive product traceability files are maintained, linking back to raw material selection, process controls, and release testing. Return, replacement, and technical escalation protocols follow manufacturer-internal batch documentation and customer specifications, addressing performance or compliance concerns with detailed technical feedback.
At our main facilities, we undertake the full-scale production of Acetoacetanilide, following a refined acetoacetylation process using controlled temperature and reactant ratios. By setting the parameters from raw material intake to final product screening, we maintain a fixed standard batch to batch, supporting tight specification requirements. We maintain batch records and employ in-house testing for major grades including technical and high-purity options, allowing buyers from both chemical synthesis and pigment sectors to select precisely what their downstream operations require.
Acetoacetanilide plays a central role in the synthesis of azo dyes and pigments, with usage extending to colorant intermediates, plastic additives, and coatings. Paint manufacturers rely on our product for pigment dispersions, where reproducibility in hue and performance is mission-critical. Plastics and adhesive producers integrate our Acetoacetanilide into resin systems to achieve required cross-linking properties. Our large-volume orders mainly serve these sectors, where production stops for quality issues are not acceptable.
Every production lot undergoes analytical verification using HPLC, melting point analysis, and moisture content checks. We calibrate our instrumentation weekly and compare retention samples from each shipment against retained references. These procedures reduce variability and help industrial formulators keep compliant with internal and external quality audits. Our teams implement root-cause investigations if deviations arise, adjusting synthesis or purification steps at source.
Our operations support multi-tonne monthly output with packaging tailored for safe and efficient handling. Steel drums, fiber drums, and FIBCs accommodate specific user plant requirements and unloading systems. Moisture barriers and tamper-evident seals extend shelf life even in tropical storage, minimizing product loss for distributors and large-scale manufacturers. Lead times remain predictably short, even during peak demand, with full palletization and batch coding used for traceable logistics.
Process engineers and application specialists from our team assist with troubleshooting and process validation at customer sites. Whether optimizing pigment synthesis routes or adapting the product for specialty coatings, our support extends beyond documentation, drawing from firsthand knowledge of process variables. Integration support for continuous production lines can involve both application guidelines and tailored sampling protocols designed around customer-specific requirements.
Our direct involvement in synthesis, quality monitoring, and packing ensures traceability from start to finish. By keeping full control over these parameters, customers benefit from predictable supply lines, reduced complaint rates, and transparent cost structures. For procurement professionals, this translates into lower sourcing risk and streamlined supplier audits. Distribution partners find value in predictable volumes, timely replenishment, and logistics compatibility, enabling them to sustain deliveries to demanding end users.
At our production plant, acetoacetanilide remains a key intermediate that drives diverse industrial operations. Synthesized through a clean and tightly monitored process, this material delivers reliable consistency—a requirement for downstream chemical synthesis used by some of the world’s largest pigment, dye, and agrochemical producers.
Acetoacetanilide is valued for its active methylene group. This high reactivity with electrophiles supports its wide use in the manufacture of azo pigments and dyes. Its molecular structure, C10H11NO2, gives it a solid crystalline form and clear color, with solubility in many organic solvents and reliable heat stability, which matters during the processing of batch and continuous synthesis. We control every stage of its crystallization and drying, ensuring product is free-flowing and minimizes dust, which helps factories maintain rigorous environmental and occupational controls.
Our customers rely on acetoacetanilide as the backbone of the acetoacetylation process for pigment and dye manufacture. The coupling of acetoacetanilide with diazonium salts produces vibrant, stable pigments used in printing inks, coatings, textiles, and plastics. Because of its purity and controlled melting range, our acetoacetanilide blends seamlessly into automated mixing and feed systems. Technical teams in paint and ink plants highlight how our product ensures batch-to-batch consistency—an essential factor for color matching and final product performance.
Beyond colorants, acetoacetanilide plays an important role in agrochemical formulations. Manufacturers use it for synthesizing herbicide and pesticide intermediates, taking advantage of its predictable reactivity and low impurity levels to meet both quality and regulatory controls in global markets. High purity keeps reaction residues to a minimum, which helps reduce purification steps and manage operating costs during scale-up.
Managing particle size, moisture control, and packaging integrity remains central to our manufacturing operations. Extensive process monitoring and robust batch-release testing mean that the acetoacetanilide we supply retains the necessary chemical stability for long-term storage and handling. Our technical support team assists end-users with process optimization, helping troubleshoot formulation issues that arise from process changes or new product introductions.
Pigment plants benefit from granular grades that reduce dust and improve flow. Formulators in coatings and plastics rely on consistent melting performance so that their dispersions remain stable throughout mixing and curing cycles. When requested, our team works directly with R&D chemists to tailor specification ranges for large volume runs, eliminating the fit-and-adjust cycles that can slow launch timelines.
Industrial users monitor environmental impact closely. Our production processes have shifted toward reducing solvent consumption and tightening emissions controls to support sustainable chemistry goals. All outgoing batches receive full traceability and documentation, so our customers can align with REACH and other major chemical safety frameworks. This keeps both our factory and our partners ahead of tightening compliance requirements across multiple regions and end-use sectors.
As a core chemical building block, acetoacetanilide remains a staple in modern manufacturing. For the colorant and crop protection sectors, its combination of reactivity, purity, and reliable supply underpins both established and newly emerging product lines. We maintain technical partnerships with downstream plants to adapt our product’s qualities to evolving demands in scale and function.
As the direct manufacturer of acetoacetanilide, we work with clients who rely on stable supply, traceable quality, and transparent order management. Raw material consistency, batch traceability, and predictable lead times play a significant role in downstream planning for coatings, pigments, agrochemicals, and fine chemical synthesis. From our production site, we see daily the difference clear communication and honest minimums make in industrial procurement.
Our batch processes and logistics determine how we set minimum order quantities (MOQs) for acetoacetanilide. We produce to satisfy both regular contract quantities and spot orders, balancing plant efficiency with flexibility. For high-purity acetoacetanilide, our MOQ generally reflects the smallest lot that can run efficiently on a dedicated line without risking contamination or waste. Bulk volumes foster stable pricing and shipping cost savings, which we pass on to clients who can accommodate larger minimums. For specialty customers, we have invested in flexible filling lines that support smaller lots for laboratory and pilot-scale applications. Orders below our standard MOQ are sometimes possible, usually at a premium due to increased change-over, handling, and packaging labor.
Lead time for acetoacetanilide procurement represents the interval from confirmed order to shipment readiness. In our factory, this depends on several factors—production schedule, inventory turnover, seasonal demand, and existing order backlog. For stocked grades and standard packaging, we typically dispatch within several working days of order confirmation. Custom packaging, non-standard purity requests, or orders placed in peak demand periods can require several weeks, as additional validation and quality checks slot into our production timetable.
Supply chain influencers—such as raw material sourcing, customs clearance for exports, and global freight schedules—directly impact factory-to-client timelines. We proactively communicate changes in these factors that might extend lead times, helping procurement teams plan with real timelines rather than theoretical averages. By maintaining open logistics channels and aligning production forecasts with customer projections, we have built a reputation for high delivery reliability, even in fluctuating markets.
End-users trust manufacturers most when pricing, lead times, and minimums are fully transparent. If a purchaser cannot confidently factor realistic lead times and minimums into their planning, the risk of costly downtime or excess inventory grows. We collaborate directly with purchasing teams at industrial customers, clarifying their real needs and our exact capacity. This open approach has allowed us to maintain long-term relationships and support production runs as small as a few drums up through multiple container loads per shipment for multinational operations.
To further support efficiency and mitigate shipping risks, we routinely assess our packaging options and logistics carriers. This allows us to offer more predictable door-to-door timelines and minimize warehouse congestion that can arise from importing large volumes at the wrong time.
Feedback from direct manufacturing partnerships drives our process improvements. By hearing directly from the formulation labs, plant engineers, and logistics coordinators who use our acetoacetanilide, we adapt MOQs and shipment scheduling to changing industry demands. We allocate production campaigns to match market cycles and invest in automation that shortens batch turnaround, reducing both MOQs and delivery times whenever possible. Our technical team regularly reviews order patterns and quality assurance data to ensure that requested lots meet application requirements, regardless of size or destination.
Effective procurement of acetoacetanilide depends on reliable minimum order volumes and real-world lead time transparency. We are continually fine-tuning our process so that chemical buyers have the confidence and information needed for uninterrupted production, with every lot traceable back to the reactor it came from.
Acetoacetanilide leaves our plant in bulk and packaged formats with handling procedures that strictly reflect both the nature of the product and the international compliance landscape. Regulations such as the Globally Harmonized System and ADR guidelines set benchmarks for labeling, containment, and hazard communication. We implement these directly at our facility, building them into every part of our production and logistics workflows.
Acetoacetanilide presents some chemical stability under normal conditions, but we do not treat that as an excuse for complacency. In our experience, real industrial quality control comes from eliminating exposure to strong oxidizers, uncontrolled heat, and humidity. We utilize high-density polyethylene and fiber drums, each with a gasket-sealed lid, to guard against moisture ingress and cargo cross-contamination. On the packaging line, our operators check every closure, monitor for damage, and document each outgoing shipment. This hands-on system minimizes handling risks and maintains batch consistency all the way from drying room to delivery dock.
Global transportation of Acetoacetanilide relies on a clear paper trail and compliance with IMDG and ICAO/IATA rules for non-flammable, non-volatile organics. We classify outgoing goods with proper UN labeling and include detailed SDS documentation in every load. Forklift operators receive annual hazmat refreshers, and our logistics planners co-write route instructions with reputable forwarders to make sure cargo never gets stranded or delayed due to paperwork issues at borders or ports.
Climate matters. We ship with temperature and humidity controls in mind, never loading product into containers exposed to rain or extremes of heat. We schedule shipments to avoid prolonged port stays during summer months, based on hard lessons learned from years of global export activity. It’s easy to underestimate the risks posed by poorly ventilated storage or wayward warehouse forklifts, but chemical damage and caking can sneak in overnight. Our finished-goods warehouse maintains strict housekeeping, free of food, odors, and industrial cross-traffic, and our staff understands the consequences of cutting corners on ventilation and handling.
International standards call for robust training and clear, accurate documentation. Every drum we export is barcoded and traced, backed by batch certificates and test results kept on file for years. Quality doesn't end when product leaves our gates; it’s protected by every technician, loader, and scheduler along the chain. Samples from each production lot are held for analytical checks, guaranteeing a reliable record in case of questions from customs, regulators, or downstream customers.
Storage and transit regulations keep everyone—our team, our partners, our customers—safe and in compliance. We know that the world doesn’t reward shortcuts, so we invest in transparent processes, skilled people, and chemical know-how. This approach positions our Acetoacetanilide to meet international expectations and industry trust, year after year.
For product inquiries, sample requests, quotations or after-sales support, please feel free to contact me directly via sales7@bouling-chem.com, +8615371019725 or WhatsApp: +8615371019725
