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Dimethylglyoxal

    • Product Name Dimethylglyoxal
    • Alias Biacetyl
    • Einecs 211-012-2
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    973806

    CAS_number 600-14-6
    IUPAC_name 2,3-Butanedione
    Molecular_formula C4H6O2
    Molar_mass 86.09 g/mol
    Appearance Yellow liquid
    Melting_point -3 °C
    Boiling_point 88 °C
    Density 0.985 g/cm3
    Solubility_in_water Miscible
    Vapor_pressure 50 mmHg (20 °C)
    Refractive_index 1.393
    Flash_point 18 °C
    Odor Strong, buttery

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

    Packing & Storage
    Packing Dimethylglyoxal is packaged in a 500 mL amber glass bottle with a tightly sealed cap, labeled for laboratory use.
    Shipping Dimethylglyoxal should be shipped in tightly sealed containers, clearly labeled and compliant with chemical transport regulations. It must be protected from heat, moisture, and incompatible materials. Use appropriate secondary containment and cushioning to prevent leaks or breakage. Emergency information and Safety Data Sheets (SDS) should accompany the shipment at all times.
    Storage Dimethylglyoxal should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. The chemical should be kept in tightly sealed containers, preferably made of glass or appropriate materials, and protected from direct sunlight. Ensure all containers are properly labeled, and access is limited to trained personnel using suitable personal protective equipment (PPE).
    Application of Dimethylglyoxal

    Applications of Dimethylglyoxal in Industrial Manufacturing

    Dimethylglyoxal, as produced in our integrated facility, plays a critical role in several specialized chemical manufacturing applications. Through ongoing collaboration with downstream processors, we ensure stringent compliance with industry-specific standards and support precise formulation needs. Below, we outline the main industrial segments where our material finds grounded, verified end uses, supported by regulatory frameworks, real-world dosage guidance, downstream processing steps, and finished good types.

    1. Pharmaceutical Intermediate Synthesis

    In API (active pharmaceutical ingredient) manufacturing, Dimethylglyoxal acts as a key intermediate for constructing heterocyclic motifs, particularly in the synthesis of advanced antibiotics and certain antitumor compounds. Its controlled reactivity and purity profile meet the high bar essential for global regulated markets. API producers depend on assured impurity control and traceability from our supply chain for their downstream registered drug substances manufacturing submissions.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP–NF and Ph. Eur. monographs (for relevant intermediates and APIs)
    • FDA 21 CFR Part 211 (cGMP for Finished Pharmaceuticals)
    • EU EudraLex Volume 4 GMP guidelines

    Typical usage ratio

    • Used at 0.8–2.5 molar equivalents relative to target substrate, adjusted for pathway yield and impurity profile
    • Batch size and ratio tuned based on desired throughput, side reaction control, and purification demands

    Downstream process integration

    • Charged directly to condensation or ring-closure step in closed reactor systems under inert gas
    • Processed via aqueous or alcohol solvent media depending on reaction pathway
    • Integrated early in multi-step synthesis, with immediate transfer to crude intermediate isolation under controlled temperature

    Final product types

    • Beta-lactam antibiotic intermediates (e.g., cephalosporin cores)
    • Nitrogen-heterocycle framework pharmaceuticals
    • Precursor intermediates for oncology and CNS APIs
    • High-value specialty drug substances

    2. Agrochemical Synthesis (Pyridine and Pyrimidine Derivatives)

    Major agrochemical complexes use Dimethylglyoxal during the manufacture of pyridine and pyrimidine derivatives, which serve as active ingredients or intermediates in herbicides, fungicides, and crop protection agents. Accurate metering and feed purity are critical during cyclization protocols to meet product registration requirements in diverse regulatory environments.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System
    • FAO/WHO Specifications for Plant Protection Products
    • REACH Regulation (EC) No 1907/2006 for EU chemical registration
    • China GB 2082-2008 Pesticides – General Rules for the Safe Use

    Typical usage ratio

    • Typically 1.1–1.5 equivalents relative to ring-forming partner, depending on catalyst and solvent system
    • Concentration modulated to control exotherm and manage side-chain substitution

    Downstream process integration

    • Directly dosed into high-shear stirred tank reactors for cyclization
    • Operates under controlled temperatures (50–120°C), with staged pH adjustment and work-up
    • Feeds into continuous or semi-batch systems paired with nitrogen blanketing

    Final product types

    • Pyridine-based herbicide active ingredients (e.g., picloram, clopyralid intermediates)
    • Pyrimidine fungicide precursors
    • Crop protection additives requiring specific heterocyclic frameworks
    • Registered technical grade agrochemicals

    3. Fine Chemical Synthesis for Dye and Pigment Manufacturing

    Certain specialty dye and pigment plants incorporate Dimethylglyoxal into the synthesis of azo and quinoxaline derivatives, valuing its selective condensation capacity with aromatic amines and diamines. Color consistency and purity are heavily influenced by controlled addition and batch-to-batch monitoring, especially for demanding textile or printing ink end specifications. Traceability and documentation in line with international trade and textile safety norms is a primary requirement.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (relevant for dye safety)
    • ISO 9001:2015 Quality procedures
    • Registration, Evaluation, Authorisation and Restriction of Chemicals (REACH)
    • ZDHC (Zero Discharge of Hazardous Chemicals) guidelines for input chemical substances

    Typical usage ratio

    • Applied at 0.4–1.0 parts per 10 parts of amine or diamine, variable with shade depth and molecular weight goals
    • Ratio optimized in pilot runs to minimize by-products and enhance chromophore intensity

    Downstream process integration

    • Dosed into condensation stage under controlled pH conditions, typically below 7
    • Processed in stainless steel or glass-lined reactors to avoid contamination
    • Intermediate filtered and washed before final formulation or spray drying

    Final product types

    • Disperse and azo dyes for synthetic fibers
    • Quinoxaline-based pigments for inks and toners
    • High-purity colorants for digital printing
    • Intermediate colorant substances for plastic masterbatches

    4. Specialty Polymer Modifier Production

    High-performance resin and coating manufacturers use Dimethylglyoxal as a building block for custom crosslinkers and as a monomer for specific acetal-modified polymers. Precise dosing in step-growth polymerizations influences network density and chemical resistance properties. Documented purity certificates and full traceability satisfy both automotive and electronics sector audit requirements, ensuring downstream processors can meet their own material audit and product life-cycle documentation obligations.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management System
    • IATF 16949:2016 for automotive-related polymer supply
    • UL 94 flammability standards (for polymer end application)
    • RoHS 2 Directive 2011/65/EU (for electronics polymer applications)

    Typical usage ratio

    • Ranges from 1–5% w/w in resin formulation as crosslinker or modifier
    • Level adjusted based on desired Tg (glass transition temperature) and chemical resistance targets

    Downstream process integration

    • Added at controlled temperature to pre-polymer mixture during crosslinking or chain extension step
    • Incorporated in solvent-free or low-VOC processes to support environmental compliance
    • Blend uniformity and conversion monitored by FTIR or NMR at our QC lab and at customer sites

    Final product types

    • Electronics-grade encapsulating resins
    • Automotive underbody anti-corrosion coatings
    • Powder coatings for metal and appliances with higher chemical durability
    • Adhesive intermediates for industrial assembly

    5. Analytical Reagent and Diagnostic Substrate Manufacturing

    Diagnostic consumables producers often employ Dimethylglyoxal as a selective derivatization agent in clinical and environmental test kit reagent formulations, capitalizing on its functionality to form chromogenic adducts for colorimetric detection methods. Compliance with laboratory chemical purity standards and meticulous documentation for lot traceability are essential expectations from laboratory and diagnostic industry partners.

    Industry compliance standards

    • ISO 13485:2016 Medical Devices – Quality Management Systems
    • CLSI (Clinical and Laboratory Standards Institute) procedural guidelines
    • USP General Chapter <621> Chromatography (for chemical reagents)
    • OECD Guidelines for the Testing of Chemicals

    Typical usage ratio

    • Employed at 0.05–0.5% w/v in final reagent formulations, optimization based on sensitivity range of detection assay
    • Precise level determined by validation batches during new kit development

    Downstream process integration

    • Introduced in reagent assembly under neutral to slightly acidic conditions
    • Lot composition verified via HPLC and spectrophotometric testing before packaging
    • Integrated into lyophilized or ready-to-use liquid test kits with barcoded batch documentation

    Final product types

    • Clinical chemistry derivatization reagents
    • Chromogenic substrates for ELISA and colorimetric assays
    • Environmental test kit chemicals
    • Analytical standards for laboratory use
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    Certification & Compliance
    More Introduction

    Dimethylglyoxal: Handling Quality from the Source

    Over years in the chemical production industry, I have found that details in formulation and process make a considerable difference in the quality and outcome of end products. Dimethylglyoxal, with its clear pale-yellow appearance and a reputation for consistency, stands out as a staple starter material across a range of applications. We produce Dimethylglyoxal in both laboratory and industrial grades, responding to technical needs of various sectors—including specialty polymers, organic synthesis, and pharmaceuticals.

    Understanding Dimethylglyoxal: Our Approach

    Producing high-purity Dimethylglyoxal, with minimal byproduct formation and controlled moisture content, has always been one of our central priorities. We chose to refine our purification and distillation methods, using equipment that supports close control over temperature and pressure. This reduces the presence of related aldehydes and ketones which commonly complicate usage in synthesis applications. The reliability of our product is not defined just by assay level—often exceeding 98%—but by the reproducibility batch after batch. In industry-scale reactions, especially those involving sensitive organometallics, trace contamination can set an entire process off course, leading to yield loss or unwanted side reactions. Avoiding these setbacks means a stronger process for you, and zero repeat issues for us.

    Our Dimethylglyoxal bears the model designation “DMG-PRO/98,” which meets the purity requirements for advanced intermediates, catalysts, and ligand synthesis work. We make sample lots available for early-stage development teams who demand clear analytical records and consistent performance patterns before ramping up to production scale.

    Why Dimethylglyoxal?

    Experiments with glyoxal derivatives started here with basic batch reactions on glassware, then moved to continuous processes as demand grew and product requirements tightened. The methyl groups on each side of the molecule widen its compatibility as a condensation partner—offering better selectivity and reduced polymerization risk compared to regular glyoxal, especially under basic or nucleophilic conditions. This gives more predictable reaction behavior, which is especially valuable for medicinal chemistry applications aiming to control product purity and minimize reacquisition steps. The operational safety profile improves, too, owing to lower volatility and decreased risk of uncontrolled dimerization.

    Manufacturers in coatings, adhesives, and resin developments have come to us looking for a more stable alpha-diketone donor. We answer with Dimethylglyoxal since its double methylation results in less water sensitivity, slower oxidation, and longer shelf-life under proper storage conditions. Stability simplifies stock management. Customers who work with large inventories—sometimes exposed to temperature swings—need to know their raw materials remain reliable well beyond the day of shipment.

    Specifications: Tested, Not Assumed

    Each finished lot of our Dimethylglyoxal undergoes full-spectrum analysis—including gas chromatography, NMR, and Karl Fischer titration for moisture. We recommend storing DMG-PRO/98 between 2–8°C in amber glass, away from strong acids or bases, which could accelerate decomposition or unwanted condensation. Bottles feature tamper-evident seals and lot numbers tied to digital COA archives accessible to repeat buyers. We do not compress timelines on quality checks: inspection happens in our own QA lab, not at a third party, because mistakes at this stage spell problems down the line.

    We prepare our product in several common fill sizes—100 g, 500 g, and 1 kg bottles for laboratory use, and safe-drain drums (up to 50 kg net) for larger clients. The packaging is leak-tested and compatible with backroom transfer systems, minimizing spill risk when emptying into reaction vessels.

    Comparing Dimethylglyoxal to Other Carbonyl Compounds

    Some colleagues ask why they should invest in Dimethylglyoxal over cheaper glyoxal or methylglyoxal for upstream synthesis. The difference lies in what you’re trying to achieve: glyoxal shows rapid self-condensation and needs stabilizing agents, increasing the chances of undesired byproduct introduction. Methylglyoxal has a higher reactivity, which is an advantage for bioconjugation, but its tendency to polymerize under ambient conditions complicates storage. Dimethylglyoxal strikes a middle ground—modified reactivity but matched by greater control, all while remaining liquid at room temperature and easier to dispense in automated systems.

    We have observed that certain dye synthesis pathways benefit from dimethyl substitution—allowing better control over chromophore assembly and reduced yellowing upon curing. Manufacturers working with antioxidant research or enzyme inhibitors prefer DMG-PRO/98 because its steric profile offers manageable kinetics, resulting in cleaner downstream isolation. With regular glyoxal, repeated purification often becomes a cost burden; with our Dimethylglyoxal, fewer runs suffice. Each process can differ, but these small distinctions add up, especially on kilo- or ton-scale batches.

    Uses in Research and Production

    Our primary customers work in pharmaceutical research, specialty chemicals, and performance materials. Organic chemists rely on Dimethylglyoxal for building heterocyclic intermediates and performing oxime or hydrazone formation, both key steps in new drug scaffold design. The ability to avoid interfering side products, a feature that comes from our deliberate process controls, keeps timelines short—and material rejection rates lower than industry averages.

    Polymer laboratories often use our DMG-PRO/98 as an efficient cross-linker and chain terminator. The ketone structure, shielded by methyl groups, brings flexibility in choosing catalysts and solvents—not every raw material can offer that. We know that scale-up headaches, such as foaming or unexpected viscosity jumps, reduce the profitability of new projects. Dimethylglyoxal, at sufficient purity, removes one worry from the equation, smoothing the transition from small-batch to process scale.

    Outside advanced synthesis, some of our industrial clients use Dimethylglyoxal in silvering solutions and photographic emulsions. The consistently high assay synchs up well with stringent optical clarity requirements. Support doesn’t end with a single batch: we keep analytic trends from previous lots on hand, so returning clients have data to quickly match run quality.

    Our Experience: Field Lessons

    In the early years, mistakes in handling glyoxal-family chemicals left us with batch failures and downstream contamination. We invested time in staff safety training and precise monitoring of water content in storage tanks and pipelines. Dimethylglyoxal demands respect—exposure to moisture opens the door for hydrolysis, and the speed at which this happens depends on the purity of the batch. We learned to reinforce containers and keep desiccant packs fresh, prolonging shelf-life regardless of shipment length.

    Some customers working with microfluidic devices or automated high-throughput systems brought feedback about pipetting accuracy and clog-free performance. In response, we standardized viscosity and particle size monitoring across production. Each bottle now comes with an engineer’s note highlighting recent QC checks, addressing user feedback head-on.

    Disposal remains a regular point of discussion. We help clients develop on-site neutralization routines using dilute sodium bisulfite—neutralizing the carbonyl groups—before wastewater discharge. Reducing the environmental load matters, both for compliance and the communities that share our local water source. Internal records show improved hazardous waste figures year after year after launching this support.

    Handling and Storage: Practices Built from Experience

    Handling Dimethylglyoxal safely starts with understanding its volatility and reactivity profile. New operators sometimes underestimate the need for closed transfer systems. Splash and vapor risks drop considerably with proper PPE and staged dispensing. We equip our loading stations with local ventilation; drips and spills are non-negotiable fire or exposure hazards. Repeated safety drills and equipment checks keep everyone alert. We didn’t always have this culture, but lessons from older incidents built our current protocols—none of which is for show.

    Container returns present another practical challenge. Once a vessel holds Dimethylglyoxal, cross-contamination becomes a real risk, especially for reuse in food-contact applications. We counsel buyers not to repurpose our drums for unrelated chemicals, and our collection service ensures drums undergo proper neutralization and cleaning before re-entry to the supply cycle. This step matters for environmental integrity and keeps trace chemicals out of later runs.

    Dimethylglyoxal’s Impact on Process Economics

    Cost takes center stage for many production managers. The upfront purchase price of Dimethylglyoxal might run higher than lesser alternatives, but the real equation shows its value in higher yields, reduced purification runs, and less labor spent troubleshooting off-spec outcomes. We run comparative tests between each new batch and legacy samples and hold test reactions open for customer review, so decisions come with trusted data rather than sales talk.

    A client in the coatings sector came to us after repeated issues with unwanted byproducts in a key polymerization step. Technical review pointed to inconsistent raw material as the culprit. Switching to our Dimethylglyoxal, the facility recorded smoother viscosity behavior and sharper color profiles in their cured product. The evidence played out plainly: spend more on reliable raw material, recoup it in less waste and smoother production days. We see similar stories every year, reinforcing the decision to make purity control a backbone of our operation.

    Challenges and Possible Solutions in Sourcing

    The chemical market faces upstream shortages and price pressure, especially for raw aldehyde feedstocks. We learned to manage these risks by keeping alternative sourcing options open and building safety stocks of immediate precursors. This commitment lets us buffer production lines from sudden shocks, while also giving clients predictable delivery dates. Buyers benefit from stability, and our production team avoids costly line stops or rescheduling headaches.

    Quality drift in global supply chains appears time and again, with some lots arriving out of spec despite certifications. We take nothing for granted and perform batchwise incoming testing, rejecting material that misses our cut. This approach sidesteps headaches down the line. Bulk producers relying fully on outside feedstocks would do well to keep a similar watch—cutting corners upstream almost always hurts profitability later.

    Looking Ahead: Innovation and Sustainability

    The research community asks for greener production routes, high atom economy, and reduced waste. We continuously examine our oxidation and methylation steps to push up yields and cut energy input per kilogram produced. By changing catalyst systems and minimizing side reactions, we cut byproduct disposal volumes—reducing waste and improving process sustainability.

    We also invest in recycling streams for spent process water and explore new uses for process-derived residues. Dimethylglyoxal production, when approached thoughtfully, can fit into integrated manufacturing setups with much lower environmental impact. Our R&D team pilots recovery cycles and takes feedback from both lab staff and plant operators seriously: we welcome ideas, especially from those closest to day-to-day production.

    What Sets Our Dimethylglyoxal Apart

    Ongoing relationships with long-term clients teach us what matters most: honesty in specification, consistency in supply, and the ability to troubleshoot technical issues person to person—not just via documents. Buyers of Dimethylglyoxal value traceability. Our product offers a documented chain running from raw inputs through final testing, supported by in-house QA and traceable sample retention.

    The subtle differences between batches, which might look small on an assay report, play out visibly in the plant or lab. One example: in a multi-step synthesis campaign, a client’s team clocked fewer reaction failures using DMG-PRO/98, with less downtime and reduced raw material overruns. We believe that attention to small technical differences—like water content, careful filler selection, and thorough documentation—distinguishes our output from competitors buying and repacking without direct process oversight.

    Adapting to Client Needs

    Process chemists and technical procurement staff call asking for help with specific methodologies—how to swap Dimethylglyoxal into their sequences, how to troubleshoot unexpected reactivity, or how to validate incoming material with portable detectors. Our team focuses on providing technical answers based on real production and lab experiences. Fielding these requests takes time, but we learn from client questions: each solves a practical hurdle that helps us improve end-to-end service over time.

    We stay engaged even after the initial sale—shipping fresh samples for comparison, recording adjustments, and responding to emergency resupply requests. These back-and-forths foster genuine partnerships rather than transactional relationships, making our work both more challenging and more rewarding.

    Conclusion: Dimethylglyoxal in Practice

    From the earliest morning quality control checks to late-night shipment reviews, we put care into every stage of Dimethylglyoxal production. Not every process can be smoothed out or perfectly predicted, but by holding a steady focus on quality and client feedback, we have seen our product offer reliability for each application—whether in an academic startup or a mature production site. Lessons from years at the production floor, listening to client chemists, and seeing processes run in real-world conditions have helped us adjust and refine our approach.

    Dimethylglyoxal from our facility stands as more than a reagent; it is a reflection of the knowledge and attention poured into its production. That dedication is what forms ongoing trust and provides real value in every packaged bottle and drum.