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Diacetamide

    • Product Name Diacetamide
    • Alias N,N'-diacetamide
    • Einecs 210-580-6
    • 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
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    394839

    Cas Number 601-83-4
    Chemical Formula C4H8N2O2
    Molecular Weight 116.12 g/mol
    Iupac Name N-acetylethanamide
    Appearance White crystalline solid
    Melting Point 121-123 °C
    Boiling Point 300 °C (decomposes)
    Solubility In Water Soluble
    Density 1.26 g/cm³
    Odor Odorless
    Synonyms Acetyldiamide, N,N'-diacetamide

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

    Packing & Storage
    Packing Diacetamide is packaged in a 500g amber glass bottle with a secure screw cap, labeled with safety information and chemical specifications.
    Shipping Diacetamide should be shipped in tightly sealed, clearly labeled containers, compliant with local and international hazardous material regulations. It must be kept away from moisture and sources of ignition, stored at room temperature, and transported via a well-ventilated, secure vehicle. Ensure handling by trained personnel with appropriate safety measures.
    Storage Diacetamide should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Keep away from heat, moisture, and sources of ignition. Store out of direct sunlight and label containers clearly. Ensure storage area is equipped with proper spill containment and that only trained personnel handle the chemical.
    Application of Diacetamide

    Applications of Diacetamide in Industrial Manufacturing

    As a chemical raw material manufacturer, we supply Diacetamide for several high-value industrial applications. Our downstream partners integrate this intermediate into targeted formulations and precision processes, supporting advanced chemical synthesis, polymer modification, specialty coatings, and textile finishing. Below, we detail practical scenarios and compliance frameworks for industrial use.

    1. Organic Synthesis Intermediate for Pharmaceutical Manufacturing

    Pharmaceutical synthesis applications utilize Diacetamide as a building block in amide coupling and protective group chemistry. Downstream operators employ it in preparative routes to produce various active pharmaceutical ingredients (APIs), particularly in heterocyclic compound synthesis and peptide intermediates, where it facilitates amidation or acyl transfer steps. Formulators design process conditions to optimize reaction yields while controlling for regulatory residual limits, and fully trace downstream quality during the transition from raw material to regulated drug substance production.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (EP) General Notices and Residual Solvents Chapter
    • US FDA 21 CFR Part 211 and 210 (cGMP for Finished Pharmaceuticals)
    • Chinese Pharmacopoeia (ChP) raw material criteria (where applicable)

    Typical usage ratio

    • 0.5–5 molar equivalents per reaction, adjusted by substrate reactivity and target yield requirements
    • Process engineers calibrate dosage according to stoichiometry, side-product suppression, and GMP process validation data

    Downstream process integration

    • Charged during multi-step synthesis as an acylation or amidation agent in API intermediate steps
    • Regulated under validated cleaning and trace impurity control protocols

    Final product types

    • Peptide-based API intermediates
    • Pyridine and pyrimidine core molecules
    • Other small-molecule drug precursors

    2. Polymer Additive and Plastic Modifier

    Polymer compounders use Diacetamide as a modifier in specialty plastics and high-performance resins. Its incorporation can enhance chain flexibility, adjust glass transition temperature, and control crystallization in products like nylon variants and engineering plastics. Production lines integrate quality checks for additive homogeneity, and QC departments manage trace metal and impurity profiles to comply with downstream regulatory requirements for plastics in sensitive applications.

    Industry compliance standards

    • ISO 9001:2015-certified manufacturing management
    • REACH Substances of Very High Concern (SVHC) compliance (EU)
    • US FDA 21 CFR 177.1500 (Nylon resin additives, if indirect food contact)
    • RoHS Directive for electronics-related compounds

    Typical usage ratio

    • 0.1–1.0% by total polymer mass in compound formulations
    • Formulators adjust ratio based on the polymer matrix type, mechanical property targets, and downstream extrusion parameters

    Downstream process integration

    • Added during compounding and melt blending as a pelletized or powder additive
    • Monitored through in-process FTIR or NMR for confirmation of distribution and reactivity

    Final product types

    • Modified nylon (PA6, PA66) components
    • Specialty polyamide powders for 3D printing
    • High-performance automotive or electrical parts

    3. Industrial Coatings and Specialty Paints Formulation

    Coatings manufacturers integrate Diacetamide into advanced formulation systems for solvent-based to high-performance industrial coatings, using its amide functionality to adjust film formation, surface adhesion, and chemical resistance. Such applications demand precise compatibility testing and crosslinker optimization, ensuring that performance meets application-specific demands in corrosion resistance or conductivity. Downstream QC routines require documentation for batch traceability and environmental compliance of amide content.

    Industry compliance standards

    • ISO 12944 for industrial corrosion protection coatings
    • ASTM D4803 for organic coating thinners and additives
    • VOC regulations (EU REACH Annex XVII, US EPA Method 24)
    • EN 71-3 safety for coatings used on metallic surfaces in appliances/toys

    Typical usage ratio

    • 0.2–1.2% by total formulation weight, optimized via tests for film integrity and application performance
    • Adjustments based on resin type, solvent system, and targeted end-use environment

    Downstream process integration

    • Dispersed into resin matrix during high-shear mixing
    • Subjected to pilot-line scaling to validate anti-corrosion and film adherence properties

    Final product types

    • Industrial anti-corrosion paints for metal infrastructures
    • Conductive coatings for electronic housings
    • Solvent-borne topcoats for machinery and tooling

    4. Textile Finishing and Fiber Treatment Agents

    Textile finishing units employ Diacetamide in fiber modification and surface treatment baths. It acts as a softening and anti-static additive during the wet processing of synthetic fibers and cellulosic blends. By optimizing application conditions, operators enhance fabric handle, dye uptake, and static charge dissipation while ensuring residue levels comply with regulatory benchmarks for skin sensitivity and environmental discharge controls.

    Industry compliance standards

    • OEKO-TEX® Standard 100 restricted substance list (chemical residues in textiles)
    • ZDHC (Zero Discharge of Hazardous Chemicals) MRSL for wet process auxiliaries
    • ISO 105-E01 Colour fastness to water for treated textiles
    • EU REACH Articles 57–59 (Candidate List restrictions in consumer textiles)

    Typical usage ratio

    • 0.05–0.4% (w/w) in finishing bath liquids, depending on fiber type and desired effect
    • Adjusted for batch size, bath pick-up rate, and post-treatment washdown

    Downstream process integration

    • Added to final or semi-final rinse stages in continuous or batchwise textile finishing
    • QC monitoring for absorbency, residual amide content, and hand feel

    Final product types

    • Static-dissipative polyester/cotton fabrics
    • Soft-finish microfiber textiles
    • Enhanced polyamide yarns for high-performance clothing
    Free Quote

    Competitive Diacetamide prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Understanding Diacetamide: Insights from the Production Floor

    What We’ve Learned About Diacetamide Over Years of Manufacturing

    Diacetamide often flies under the radar, yet it plays a steady role in diverse industrial applications. For those who spend their days at the reactor and know the ins and outs of batch consistency and purity swings, Diacetamide has established itself by performing where other amides struggle with solubility, shelf life, or unwanted reactivity. Daily hands-on production shines a light on what really separates this compound from alternatives, and why end users keep coming back asking for it by name rather than generic substitutes.

    The Nature and Model of Our Diacetamide

    Our operation works with Diacetamide in its pure crystalline form, typically offering technical and pharmaceutical grades by closely controlling synthesis routes and purification steps. The essential model our line produces leans on high purity, generally above 99%. This may sound like a marketing term tossed around too often, but on the factory floor, "purity" means not having to troubleshoot unexplained results or delayed runs. Each batch gets characterized for melting point, moisture content, and key contaminants using GC and HPLC, so users downstream don’t stumble over these hurdles.

    Teams check for off-color batches, clumping, or any drift from tight melting point ranges. Crystals that look like a fine, white to off-white powder mean everything went right—no odd hues, no tackiness. Our technicians know that sticking to these standards makes drying, dissolving, and storing the material far less of a headache for anyone who opens the next sack or drum.

    Applications Where Diacetamide Delivers Results

    Most of the Diacetamide leaving our plant finds its way into chemical synthesis. In small molecule creation, it often stands out as an acylation agent thanks to its stable character—operators can add it without setting off a cascade of side reactions that can happen with other reagents. Peptide synthesis and pharmaceutical R&D count on this compound to form certain amide bonds smoothly, producing clean intermediates that don’t need extensive downstream scrubbing.

    Beyond fine chemistry, plastics and specialty coatings benefit from Diacetamide’s thermal stability and resistance to hydrolysis. Process engineers mentioned in review meetings that equipment cleaning goes faster because residue from this material rinses out without residue. Large polymerization batches stay consistent with fewer interruptions for filter changes since the crystallized product doesn’t clog feed lines like some lower purity analogs.

    Our feedback loop with users in specialty solvent production further highlights one overlooked aspect: Diacetamide’s ability to act as a scavenger for trace oxidizers and as a stabilizer during bottling. When packaged under controlled conditions, it remains free-flowing and storage-stable, relieving logistics teams from the worry of product degradation before it even reaches the next plant.

    Comparing Diacetamide to Other Amides and Functional Reagents

    Many customers new to Diacetamide raise the question: what makes it worth choosing over acetamide, N,N-dimethylacetamide, or urea derivatives? Years of lab testing and production-scale reactions offer some straight answers. Acetamide alone, while cost-effective, proves more prone to picking up moisture in transport, often resulting in partial hydrolysis and a sticky by-product that gums up feeders. N,N-dimethylacetamide presents volatility and toxicity concerns that Diacetamide sidesteps, keeping air monitoring requirements modest and ventilation needs lower for the operators working around the plant.

    Switching from urea-based alternatives, users immediately note fewer issues with by-product formation, since our Diacetamide grades avoid common contaminants like cyanuric acid or formaldehyde. Internal trials demonstrate that Diacetamide operates without the pungent odors or skin irritation many operators complain about when handling less refined amides. This aspect alone improves staff retention and safety scores over the long term.

    We’ve faced repeated inquiries from R&D groups aiming to push reaction yields a little higher or shave minutes off a critical process. For teams who swapped to Diacetamide for the first time, documented improvements include reduced rework rates, less filter fouling, and tighter molecular weight distribution in resins and adhesives. Those running continuous flow systems also observed less crystallization within their lines, minimizing shutdowns for cleaning.

    Technical Details from the Production String

    Quality in Diacetamide production starts long before the final step. Years of refining our method taught us that each stage, from raw material verification to drying and packaging, shapes the end result as much as the chemical structure itself. Standard runs start with pharma-grade acetic anhydride and carefully controlled temperature profiles. Any diverging from precise venting or cooling rates invites color formation or inconsistent yields, so our process logs track this closely.

    Once crystallized, product dryness proves crucial. We invest in carefully monitored drying rooms and periodic Karl Fischer titrations to ensure the finished powder sits well below 0.2% H2O by weight. Excess residual moisture might seem trivial, but powder flow changes noticeably, and customers in tableting or blending applications pick this up without fail—so it's not a point we can skimp on.

    Packing and sealing affect not only the shelf life but also the integrity during shipping. Double-bagged sacks and vented drums limit air ingress and prevent agglomeration, a lesson learned the hard way after monitoring returns from overseas shipments during the rainy season. Every batch label is traceable to production logs and retained samples. Our lab keeps reference specimens at ambient and elevated temperatures to confirm real-world shelf stability, resisting caking or yellowing even after months of storage.

    Worker Safety and Handling Lessons Shared on the Floor

    Regular production meetings hammer home that safe use depends on daily discipline, not just written instructions. Working with Diacetamide in bulk means handling dust and tracking spills diligently. We learned through monthly safety audits that regular baghouse maintenance and proper PPE keeps airborne levels low, making daily tasks safer and maintaining a clean workspace. Teams use direct-loading systems to feed reactors and avoid open scooping—a habit that cut product loss and didn’t hurt the bottom line.

    Everyone in the warehouse keeps up with hazard communication training, since Diacetamide, while less problematic than some amides, still carries skin contact risks in bulk. We choose to stick with light but durable gloves and step up eye protection for anyone around open drums, as solid splinters can scratch corneas and cause downtime. Mandatory hand-washing before breaks helped reduce minor dermatitis incidents, and a dedicated first aid station close to the production floor keeps any issues manageable.

    Environmental and Waste Considerations

    Sustainable manufacturing weighs on every decision we make. Diacetamide gives some advantages, since waste streams contain little in the way of hazardous by-products if purification follows tight guidelines. Years back, we struggled with process effluents carrying residual acids and off-cuts, but incremental improvements—including in-line neutralization and filtration—ended up reducing our chemical oxygen demand ratings. Waste powders primarily head to high-temperature incineration, vetted for full combustion.

    Drum and sack reuse involves a strict cleaning regimen with detergent systems proven to cut down residual organic material by over 90%. Sourcing tighter-sealing bags for our final packaging cut the number of damaged shipments, meaning less rejected product at end customer sites and, ultimately, less landfill waste from compromised containers. We continue working with partners to trial fully biodegradable liners, though we’ve noticed that some current options can’t quite withstand the rigors of international transport during the monsoon months.

    It’s common that our environmental team joins weekly reviews, cross-checking production notes to chase down even minor leaks or spills. This keeps pressure on everyone to follow transfer protocols and rewards teams who suggest ways to reduce product loss or energy consumption. Successful pilots, such as recovering residual solvents from equipment wash cycles for reuse, have cut annual disposal costs and improved our overall energy use profile—a win for both production and the wider community.

    Real-World Challenges and Solutions in Diacetamide Production

    Anyone who claims their production line never runs into hiccups probably hasn’t spent enough time in the plant. We’ve managed off-spec batches caused by power interruptions, upstream raw material variability, or momentary cooling failures during hot summer stretches. The best tool for handling these events stays the same: document everything, review root causes, and don’t pretend issues will fix themselves over time.

    Last winter, we noticed a series of clumped, minimally discolored cakes from one crystallizer line. After tracing back, it came down to slightly elevated batch temperatures and a cracked gasket letting in atmospheric moisture. By tightening up preventative equipment checks and verifying seal integrity, we put an end to this. Extra training for new batch operators also closed the loop—reducing batch rejection rates and reclaiming several drums that would have been scrapped in the past.

    Further process improvement has also meant taking operator feedback seriously: a new sifting system downgraded dust release during packing, and repurposed air-filtering equipment from another process line now lets us recapture more fine material, improving overall yield. As margins tighten throughout the chemical sector, these steps keep plant operations viable and product quality consistent without risking corners cut.

    Industry Developments, Regulations, and Traceability

    With chemical controls and quality certifications growing stricter each year, Diacetamide production can’t ignore the reality of documentation and audit trails. Our logs detail not only batch conditions and analytical results but also record every cleaning cycle, maintenance event, and deviation report. Routine audits by internal and third-party teams push transparency and encourage new solutions, not just paper compliance.

    Recent regulatory updates on amide handling prompted us to review labeling, hazardous chemical storage setups, and staff exposure limits, even though Diacetamide’s toxicity profile is lower compared to some alternatives. Documentation plays a critical role during site audits, facilitating smooth import and export clearances and helping customers verify supply chain reliability for their regulatory filings. Digital tracking of drum weights, serial codes, and shipment origins keeps our customers—and their own auditors—confident in product pedigree.

    We keep an eye on evolving national and international guidelines for workplace chemical exposure. Engineering controls and local exhaust systems across our weighing and drying rooms ensure air quality remains well below current exposure thresholds. Regular external sampling and checks with occupational health professionals back up our own in-house monitoring, keeping workers and nearby communities reassured about operations.

    Feedback from Users and Partnerships with the Downstream Sector

    Direct user engagement shapes process improvements and product specs more than marketing surveys or market research firms ever could. Customers from the pharmaceutical, coatings, adhesives, and plastics sectors tell us when a batch meets or exceeds expectations and—just as importantly—when it doesn’t. Candid discussions on issues such as jittery reactivity in a scaled synthesis or batch deviations help us adjust grade specs. In response to such feedback, small tweaks in crystal drying or purity benchmarks turned problem jobs into consistent runs, preventing losses and turnaround delays for multiple partners.

    Sometimes, end users trial our Diacetamide side-by-side with established alternatives in their most challenging processes. That real-world comparison goes beyond the specs on a paper—users notice how our powder blends, dissolves, or behaves under their unique temperature and pressure profiles. Our technical liaison team stays on hand to walk through any anomalies in their process so corrective steps can be implemented in successive production cycles, not months down the road.

    We see steady demand from customers who value long-term reliability and clear communication more than rock-bottom price points. Partnership goes beyond simply shipping a product out the door: ongoing batch performance reviews often result in collaborative process changes or custom grade adjustments best suited to unique end-use scenarios.

    Looking Ahead: The Role of Diacetamide in Shifting Industrial Landscapes

    As trends in green chemistry and process optimization take hold, Diacetamide’s clean performance and adaptable profile attract R&D teams aiming to improve sustainability or reduce resource use. We direct resources into incremental improvements—better automation in feed and drying stages, less energy-intensive crystallization, and smarter waste heat capture. Networking at industry roundtables keeps us tuned into how new requirements for lower residual solvents, tighter heavy metal specs, or improved shelf stability might affect both production and end use requirements.

    Investment in digital process controls delivers measurable benefits. Automated anomaly detection flags process drift before off-spec material is finished and packaged. Data integration from raw material intake to final shipment lets us track bottle-necks and make sense of recurring issues, closing the cycle from plant floor to boardroom. This digital transparency matters more as accountability across chemical supply chains comes into sharper focus, with major buyers requesting end-to-end traceability and clean data for compliance reports.

    We believe that steady process upgrades—guided by continuous operator feedback and fresh industry benchmarks—will keep Diacetamide as a mainstay for those requiring a steady, simple amide that behaves as expected. While regulatory and customer demands grow, a focus on core manufacturing discipline, hands-on staff training, and listening to real-world problems ensures that product quality, safety, and environmental targets won't get lost in the rush for volume or short-term returns.

    Years spent refining Diacetamide production demonstrate that every step—raw material inspection, reactor discipline, drying room checks, packaging reliability, and true partnership with end users—directly shapes the outcome in the field. As new challenges emerge and market needs shift, these hard-won lessons guide future improvements and ensure everyone relying on our product gets value and confidence with every shipment.