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N-Benzylacetoacetamide

    • Product Name N-Benzylacetoacetamide
    • Alias N-Benzyl-3-oxobutanamide
    • Einecs 402-210-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    433048

    Chemical Name N-Benzylacetoacetamide
    Molecular Formula C11H13NO2
    Molecular Weight 191.23 g/mol
    Cas Number 3260-20-2
    Appearance White to off-white crystalline solid
    Melting Point 88-92°C
    Solubility Slightly soluble in water, soluble in organic solvents
    Density 1.17 g/cm3 (approximate)
    Smiles CC(=O)CC(=O)NCC1=CC=CC=C1
    Inchi InChI=1S/C11H13NO2/c1-9(13)8-11(14)12-7-10-5-3-2-4-6-10/h2-6H,7-8H2,1H3,(H,12,14)
    Pubchem Cid 168927
    Storage Conditions Store in a cool, dry, and well-ventilated place
    Synonyms N-Benzyl-3-oxobutanamide

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

    Packing & Storage
    Packing N-Benzylacetoacetamide, 100g, is supplied in a tightly sealed, amber glass bottle with a detailed hazard label and identification.
    Shipping N-Benzylacetoacetamide is shipped in tightly sealed containers to prevent contamination and moisture absorption. Packaging complies with regulatory safety standards, including chemical labeling. The product is typically transported at ambient temperature, avoiding excessive heat or direct sunlight. Appropriate documentation, such as Safety Data Sheets (SDS), accompanies the shipment for safe handling and compliance during transit.
    Storage N-Benzylacetoacetamide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight. Avoid sources of ignition, heat, and incompatible substances such as strong oxidizing agents. Label the container clearly and keep it in a secure location, accessible only to trained personnel. Follow all relevant safety and regulatory guidelines for storage.
    Application of N-Benzylacetoacetamide

    Applications of N-Benzylacetoacetamide in Industrial Manufacturing

    As the direct manufacturer of N-Benzylacetoacetamide, we serve specialized downstream sectors that rely on this key intermediate for precise synthesis, complex formulation, and high-value material production. The following applications reflect our customer base in pharmaceuticals, agrochemicals, colorants, and specialty polymers, with detailed compliance, processing, formulation ratios, and end-use examples for each segment.

    1. Pharmaceutical Intermediate for API Synthesis

    Pharmaceutical manufacturers frequently use N-Benzylacetoacetamide as a critical intermediate in the synthesis of several active pharmaceutical ingredients, particularly those based on heterocyclic and benzylated structures. This raw material undergoes condensation, alkylation, or cyclization steps to enable the build-out of target pharmacophores in small-molecule APIs. Customers ensure tightly controlled reaction conditions and traceability of each synthetic step for regulatory submission.

    Industry compliance standards

    • ICH Q7A Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (Ph. Eur.) monograph requirements for intermediates
    • US FDA 21 CFR Part 211 (current GMP for drug manufacturing)
    • Chinese Pharmacopoeia (ChP) guidance on registered intermediates

    Typical usage ratio

    • 20–35 mol% relative to core ketone substrate in stepwise reactions; ratio set by target API’s route of synthesis
    • Batch size and purity requirements adjusted for pilot or commercial scale

    Downstream process integration

    • Added in semi-batch reactors during the key amide-bond forming stage
    • Monitored for residual content via HPLC at each stage of the synthetic workflow
    • Subsequent quench, purification, and crystallization to isolate high-purity intermediates

    Final product types

    • Heterocyclic antihypertensive APIs
    • Benzylamine class CNS actives
    • Registered pharmaceutical grade intermediates
    • Finished medicinal compounds after final stage synthesis

    2. Agrochemical Active Ingredient Precursor

    N-Benzylacetoacetamide plays a key role in the agrochemical sector as a selective building block in the preparation of herbicide and fungicide actives, especially those employing benzylamide scaffolds. Formulation chemists rely on its reactivity in controlled condensation reactions with various acylating agents to generate the target molecules required for pest and disease management across broad-acre and high-value crop applications.

    Industry compliance standards

    • FAO/WHO specifications for technical materials
    • OECD GLP (Good Laboratory Practice) for toxicology studies
    • EU Regulation (EC) No 1107/2009 on plant protection product registration
    • China Ministry of Agriculture GB 4839-2020 (Technical Material, Pesticides)

    Typical usage ratio

    • Employed at 10–30 wt% of reaction mass for active synthesis step
    • Precise molar quantities set by downstream chloroacetoamide synthesis protocol

    Downstream process integration

    • Charged to the reactor with solvent and acylating agents during multi-step synthesis of actives
    • Purified using phase separation and column techniques to remove structural analogs
    • Incorporated into wettable powder or suspension concentrate formulations post-synthesis

    Final product types

    • Pre-emergence herbicide technicals
    • Systemic fungicide APIs
    • Microencapsulated pesticide actives
    • Water-dispersible granule crop protection products

    3. Dye and Pigment Intermediate for Specialty Colorants

    Colorant manufacturers use N-Benzylacetoacetamide to introduce specific functional groups onto aromatic cores, aiding the synthesis of specialty azo and anthraquinone dyes. Its role as a coupling partner or acetoacylating agent allows for the modification of solubility, fastness, and shade characteristics vital to textile, plastic, and ink formulations. In manufacturing, this raw material needs close quality control to prevent color impurities in finished batches.

    Industry compliance standards

    • OEKO-TEX® Standard 100 for dyes in textile applications
    • EN 71-3:2019 (Safety of Toys—Migration of Certain Elements) for pigments in toy coatings
    • REACH Directive 1907/2006 compliance for colorant raw materials
    • ISO 9001:2015 certified production and QC

    Typical usage ratio

    • 5–25 mol% of chromophore precursor mass; exact addition varies by color type
    • Adjustable based on desired tinctorial strength and stability

    Downstream process integration

    • Enters coupling step in azo dye manufacture to modulate electron-donating properties
    • Reacted in jacketed reactors with strict temperature and pH control
    • Intermediate isolated and milled before final blending and filtration

    Final product types

    • High-performance textile disperse dyes
    • Industrial inkjet colorants
    • Specialty masterbatch pigments for plastic molding
    • Organic pigments for automotive coatings

    4. Monomer Component in Specialty Polymer Synthesis

    For specialty polymers, N-Benzylacetoacetamide presents valuable amide and aromatic functionality for use as a functional comonomer, particularly in polyamide and polyimide engineering thermoplastics. Polymer engineers add this intermediate to confer heat resistance, rigidity, and modifiable processability to base resins. It supports tailor-made copolymer architectures for advanced electrical, automotive, and membrane separation applications.

    Industry compliance standards

    • UL 94 (Plastic Material Flammability Standard) for electrical housings
    • RoHS Directive 2011/65/EU for restricted substances in electronics
    • ASTM D638 (Standard Test Method for Tensile Properties of Plastics)
    • ISO 9001:2015 process control for specialty polymer lines

    Typical usage ratio

    • 2–12 wt% as a reactive monomer unit in blended polymerizations
    • Ratio selected according to targeted glass transition temperature and mechanical profile

    Downstream process integration

    • Dosed into high-shear reactors during prepolymer or copolymer formation
    • Participates in melt-phase or solution-phase polymerizations with catalyst addition
    • Feeds extrusion or film-casting lines for downstream shaping

    Final product types

    • High-performance polyimide films
    • Copolymer resins for fuel cell membranes
    • Thermoplastic composites for structural applications
    • Electrical encapsulation materials
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    Certification & Compliance
    More Introduction

    N-Benzylacetoacetamide: An Experienced Manufacturer's Perspective

    Real-World Understanding of N-Benzylacetoacetamide

    In the chemical manufacturing business, every product carries a particular story due to its synthesis, quality control methods, and the hands-on knowledge built over years. N-Benzylacetoacetamide remains one of those compounds that demands accuracy, consistency, and a disciplined approach from production to final packaging. As a manufacturer, we have handled this material from its initial conception stages to regular industrial lots, observing its behavior across multiple reaction systems and applications.

    N-Benzylacetoacetamide has found its place in the market because it adapts to the needs of synthetic organic chemistry, especially as a building block. Our model incorporates tightly controlled crystallization and drying practices to ensure a high purity standard — a necessity rather than a selling point. Typical product batches offer a purity above 99%. We routinely perform GC and NMR validations. These tests catch not only expected contaminants but also rare by-products that sometimes arise under varying temperature or pressure regimes during the benzylation steps. Our staff understands that missing any of these aspects during batch processing could result in subpar yield for downstream customers.

    For users in pharmaceutical R&D and contract synthesis, the molecule’s amide group and activated methylene position lend themselves to further functionalization and condensation reactions. Over years, we’ve received feedback from bench chemists facing route challenges, and we’ve revisited our synthetic regime to limit side reactions that could compromise batch-to-batch quality. For example, years ago, inconsistent supply from upstream raw materials introduced trace aromatic impurities; our in-house purification and vendor audit program countered this, reinforcing a direct line between firsthand operational monitoring and end-user trust.

    Specifications: What Actually Matters on the Ground

    The product typically appears as a white to off-white crystalline solid; this observable quality serves as an initial check before lab analysis. Melting point sits in the range of 94-98°C, a narrow spread we’ve maintained through controlled reactor cooling and well-calibrated filtration. We provide the product in multiple lot sizes based on client needs. Each container, regardless of scale, undergoes the same release protocols. We have witnessed that customers running kilo-scale syntheses value consistent melting point and homogeneity, so we measure at different spots throughout each bulk batch.

    Some buyers expect technical details on solubility or shelf stability, so we maintain a running log drawn directly from storage observations. The compound dissolves well in common polar solvents such as DMF, DMSO, and even acetonitrile, and its stability remains uncompromised for over two years under dry, dark conditions, provided containers remain tightly closed against atmospheric moisture. This longevity is not theoretical; it comes from hundreds of routine inventory checks as well as customer retention samples tested quarterly. Our technical staff has had to handle product recalls from less careful competitors—usually due to hydrolytic breakdown or moldy product. These lessons have shaped both our operational habits and our advice to users.

    Application Insights from Manufacturing and User Support

    As a raw material or reagent, N-Benzylacetoacetamide slots most commonly into sequences for heterocycle synthesis, specialized amide derivatives, and select agrochemical intermediates. Medicinal chemists frequently explore its versatility in pyrimidine analogs, imidazole pathways, or as part of lead optimization projects requiring benzyl-protected functionality. Over several years, we have supported customers as they troubleshoot failed couplings or unanticipated by-products. They turn to our in-house chemists, who have firsthand experience not only in operating large reactors but also in running bench-scale reactivity screens—something traders and resellers cannot replicate.

    One recurring issue in custom synthesis stems from variable raw material quality. With N-Benzylacetoacetamide, slight variations in benzyl chloride or acetoacetanilide source materials can create stubborn residues or color changes that throw off downstream purification. We take extra care in the filtration and washing stages, using water and ethanol based on LC/MS spot-checking feedback. This attention to detail reduces wasted effort later and builds confidence for customers undertaking laborious multi-step syntheses.

    Listening to contract manufacturing clients has alerted us to recurring pain points—one being difficulty solubilizing the material in large-scale flow chemistry. Feedback like this has pushed us to adjust the final drying phase, producing a product that resists caking and maintains flow in automated dispensers. What may sound like a small operational change significantly decreases hopper jams and downtime for continuous production labs. These facts come from conversations direct from the shop floor to client production teams, not from reading technical brochures or third-party reviews.

    Direct Comparisons: N-Benzylacetoacetamide Against Similar Compounds

    N-Benzylacetoacetamide stands apart from other acetoacetamides. In the lab, for instance, researchers might face a decision between this compound and N-alkyl or N-aryl variants, each bringing different reactivity and final group lability. Benzyl substitution introduces a unique balance—the group survives broader synthetic manipulations than methyl or ethyl, yet cleaves neatly under hydrogenolysis, allowing chemists to remove it at a late stage without damaging delicate intermediates.

    Other acetoacetamide compounds, especially simple N-methyl or N-propyl, offer less steric bulk, opening the door to undesired side reactions in sensitive cyclizations or condensations. Logbooks kept in our quality area document customers who returned to N-Benzylacetoacetamide after failed optimizations with other analogues—these stories illustrate direct consequences from changes in process chemistry. In one case, a customer scaled up an N-phenylacetoacetamide intermediate only to find cross-coupling yields dropped sharply, a situation resolved by reverting to benzyl substitution. This insight comes not from theoretical reasoning, but from tracking years of customer case files.

    Handling characteristics distinguish benzyl derivatives, too. Crystalline N-Benzylacetoacetamide stores and weighs with minimal dust or static charge. In contrast, N-alkyl analogues often cake badly, causing weighing errors and uneven bottling. We apply anti-static procedures during our packaging process, but the root difference arises from the molecule’s physical properties, not secondary interventions in the plant.

    Managing Quality: Manufacturer’s Roadblocks and Lessons Learned

    Quality for us means measurable consistency in every drum, jar, and sample. Achieving this is neither routine nor cosmetic. In the days before modern analytical equipment, chemical plants often released product on the basis of simple melting point or appearance; today, our customers—particularly those in fine chemicals and pharma—expect supporting analytical documentation for every batch. To meet these expectations, we’ve built up a suite of HPLC, GC-MS, and NMR checks long before contract paperwork or inquiries demand it.

    Logistics present another profound test. Temperature fluctuations during cross-country transport in both winter and summer can threaten the compound’s stability. Years ago, we realized ambient truck shipping occasionally allowed surface condensation inside containers; now, we use custom barrier liners and fixed desiccant inserts. This hands-on problem solving comes only from years of fielding customer complaints and dissecting the chain of custody for every shipment.

    End-use validation occasionally throws up unexpected results. We have one documented case where a client reported trace chlorine content traced to an improperly cleaned reactor between runs. Only after direct, site-specific investigation did we identify the root—a maintenance oversight that prompted upgrades to our in-house reactor cleaning schedule. Such process improvements spring from manufacturer experience, not simply reading or restating ISO protocols.

    Safety Focus Built on Real-World Handling

    Daily exposure to N-Benzylacetoacetamide, both in kilogram lots and on the pilot scale, teaches risk management that transcends MSDS labels. The powder is neither highly toxic nor distinctly hazardous, yet improper dust control can burden workers with mild irritation. We teach and enforce real-world safety practices: mandatory gloves, local exhaust ventilation, and backup spill kits. Our safety committees frequently meet to review new handling episodes that come to light, ensuring lessons learned from even near-miss incidents shape protocols in real time.

    Over the years, we have supplied numerous small-scale academic labs, where new researchers learn that even a low-hazard amide demands respect. If moisture creeps into storage bottles, hydrolysis can generate foul-smelling by-products that signal loss of integrity. Avoiding such issues means controlling both the chemical and physical environment—again, a matter of discipline learned through cycles of inspection and maintenance.

    Supply Chain Realities: Producer Insights versus Market Promises

    Distributors and resellers routinely pitch chemicals such as N-Benzylacetoacetamide based on brochure promises. Actual producers grapple with issues underneath these surface claims: raw material seasonality, reliability of key precursors, and backup supplier relationships. As a manufacturer committed to maintaining regular lots, we keep on-hand reserves of both benzyl chloride and validated acetoacetanilide, re-tested every quarter. On occasion, global disruption in solvents or precursors tests our purchasing staff’s ability to source material without diverging from established process parameters—a difference that solidifies reliability for our consistent customers.

    Route optimization never stands still for a working manufacturer. Chemical process managers judge each step for batch time, risk of side-product formation, and scalability. We have, in earlier years, paused regular production to recheck the kinetics and scalability of our alkylation stages. Only experimentation with varying base strengths and solvent systems produced a reliably high-purity product at larger scales, a fact that differentiates us from brokers merely passing on material.

    We also recognize broader market shifts—regulatory enforcement on benzyl products, stricter documentation for animal or human end-uses—as shaping not only what we produce, but also how we report and support our product in the field. Regular engagement with compliance officers and front-line production staff means we stay ahead of regulatory bottlenecks, rather than wait for new paperwork to catch up with the realities in the plant.

    Customer Support: Knowledge Gained from Everyday Operations

    Customers of N-Benzylacetoacetamide often arrive looking for technical support unavailable from traders. As a direct manufacturer, only our team can speak authoritatively about troubleshooting purification steps, the impact of certain batch variations on analytical readings, or the value of repurposing off-spec lots for process development trials. With more than a decade of continuous improvement cycles, every support request informs the next iteration of our product offering.

    Support extends long after a shipment leaves the gate. Our warehouse keeps reference samples from every lot, stored under identical conditions to customer stockrooms. This ability to backtrack and diagnose batch-specific issues, coupled with open production documentation, closes the loop between us and the user. In no small way, it reassures buyers that what they receive today will match what worked yesterday—an assurance built on routine, not rhetoric.

    Direct feedback—both positive and challenging—guides our upgrades. In the last review cycle, technical staff from a multinational customer flagged minor melting point shifts over time. Investigating with their chemists, we found micro-level batch heating inconsistencies; adjustments followed immediately, with both teams discussing changes to reactor software settings. The cumulative knowledge built through dozens of such collaborations now echoes in every updated product lot.

    Process Evolution: Learning and Adaptation for Long-Term Reliability

    No manufacturing process stands still under real-world pressures. As experienced producers of N-Benzylacetoacetamide, we have adapted old equipment, updated process controls, and rebuilt crystallizer lines in response to emerging needs. For example, a move to more efficient, closed-system drying reduced both energy usage and formation of process dust, improving in-plant working conditions and final product purity simultaneously.

    Scaling up from bench to pilot to commercial scale exposed unanticipated issues—changes in end-point mixing or cooling rates that altered crystal form or density. Rather than ignore these lessons, we log and communicate each one, ensuring that every new equipment specification or operator training session passes along the reason behind each step. This culture of open, iterative improvement is the core of manufacturing expertise, producing a product that lives up to its technical and marketing claims alike.

    Industry trends toward green chemistry have further influenced our process revisions. Improved reaction yields, lower solvent use, and reduced waste handling all emerged not from top-down directives but from routine process check-ins and ground-level operational insight. Customers benefit from a more reliable, better product, and our workforce takes pride in sustainable practices that go beyond regulatory minimums.

    Why Manufacturer Experience Matters for N-Benzylacetoacetamide

    Real E-E-A-T in our field means a record grounded in daily factory activity, direct customer problem solving, and a relentless drive for iterative improvements. For N-Benzylacetoacetamide, every detail—source control, reaction monitoring, packaging, and end-user feedback—impacts the quality downstream researchers count on. We never view any product, including this one, as a mere SKU. As the actual producer, we hold a unique vantage point: any batch can tell a story, teach a lesson, and improve practice for those who rely on our work for theirs.

    Through years of making, testing, and adjusting N-Benzylacetoacetamide, we have learned that a chemical’s reputation in the field runs deeper than paperwork or formal documentation. Trust builds not on advertising, but on real performance seen at every hand-off, from our production line to the research bench or manufacturing plant of every customer who puts our product to use. That level of firsthand, informed experience stands behind every container that leaves our facility—and shapes every improvement to the product and the process that delivers it.