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2,3-Dimethylvaleraldehyde

    • Product Name 2,3-Dimethylvaleraldehyde
    • Alias 2,3-Dimethyl-5-methylbutanal
    • Einecs 242-017-7
    • 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

    743728

    chemical_name 2,3-Dimethylvaleraldehyde
    cas_number 18935-38-7
    molecular_formula C7H14O
    molecular_weight 114.19 g/mol
    appearance Colorless to pale yellow liquid
    boiling_point 135-137 °C
    density 0.794 g/cm³
    refractive_index 1.404
    flash_point 31 °C
    solubility_in_water Insoluble
    smiles CC(C)CC(C)C=O
    pubchem_cid 5371267

    As an accredited 2,3-Dimethylvaleraldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 100 mL amber glass bottle with a sealed cap, clearly labeled "2,3-Dimethylvaleraldehyde," including hazard warnings and handling instructions.
    Shipping 2,3-Dimethylvaleraldehyde should be shipped in tightly sealed containers, away from heat and ignition sources, as it is flammable and may emit harmful vapors. Use UN-approved packaging compliant with local and international regulations. Transport in a cool, well-ventilated area, and clearly label as a hazardous chemical.
    Storage 2,3-Dimethylvaleraldehyde should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat, open flames, and direct sunlight. Keep it separate from oxidizing agents, acids, and bases. Store in a flammable liquids cabinet if possible. Label the container clearly and ensure compatibility with other stored chemicals to prevent hazardous reactions.
    Application of 2,3-Dimethylvaleraldehyde

    Applications of 2,3-Dimethylvaleraldehyde in Industrial Manufacturing

    2,3-Dimethylvaleraldehyde supports advanced synthesis across specific chemical and specialty manufacturing sectors. Our production process offers high purity and tight batch consistency, making the material suitable for demanding industrial requirements. Below are validated downstream applications, showing industrial specifications, process practices, and finished product outputs.

    1. Synthesis of Fragrance Intermediates

    Fragrance compounding plants use 2,3-Dimethylvaleraldehyde as a tailored aldehyde backbone for aliphatic ingredients. Production engineers introduce it early in the aldehyde condensation stage to build proprietary aroma molecules. Its branched structure delivers desired odor notes for high-value perfumery blends, supporting unique aldehydic signatures in fine fragrances. Our QA protocols and documented traceability appeal to customers supplying multinational FMCG fragrance houses.

    Industry compliance standards

    • IFRA Standards for use in perfumery ingredients (latest amendment)
    • REACH Regulation (EC) No 1907/2006 registration and supply protocols
    • Cosmetic Regulation (EC) No 1223/2009 for volume control in finished products
    • Good Manufacturing Practice (GMP) EN ISO 22716 for cosmetic ingredient production

    Typical usage ratio

    • In most aldehyde fragrance synthesis, the dosing range is 0.5–3% relative to total precursor aldehyde mass. Formulators adjust dose considering desired note impact and process reactivity controls.

    Downstream process integration

    • Integrated at the condensation step with other aldehydes and aromatic bases
    • Feeds into continuous reactors or batch mixers under inert atmosphere
    • Strict temperature and time profiling to avoid side reactions
    • All reactions monitored by GC-MS for conversion yield and impurity control

    Final product types

    • Aliphatic aldehyde intermediates for high-end perfumes
    • Fine fragrance bases for luxury and mass market lines
    • Scent molecules for household and personal care applications
    • Specialty aroma compounds for air care and candle markets

    2. Pharmaceutical Building Block for API Synthesis

    Process chemists select 2,3-Dimethylvaleraldehyde as a key aldehyde in complex molecule construction, supporting the synthesis of pharmaceutical active ingredients, particularly for heterocyclic and chiral intermediates. Controlled addition enhances selectivity in multi-step organic transformations, including reductive amination and hydrocarboxylation. Our technical support includes full COA, impurity profiles, and stability documentation to suit audited API projects.

    Industry compliance standards

    • European Pharmacopoeia 11.0 and USP–NF for raw material quality
    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • 21 CFR Part 211 (cGMP for Finished Pharmaceuticals)
    • GMP Annex 21 for starting material traceability

    Typical usage ratio

    • Applied at 0.2–1.2 molar equivalents based on target pharmacophore; ratio varies by route efficiency and impurity profile requirements for the eventual API molecule.

    Downstream process integration

    • Introduced during key condensation or ring-construction steps
    • Workflow includes process filtration and intermediate crystallization
    • Often used in pilot and commercial scale flow chemistry operations
    • QC sampling follows established pharmacopeial protocols

    Final product types

    • Chiral pharmaceutical intermediates
    • Small-molecule APIs for CNS and cardiovascular drugs
    • Specialty vitamin analogues and prodrugs
    • Research intermediates for combinatorial chemistry

    3. Agrochemical Synthesis (Herbicide Intermediates)

    Agrochemical manufacturers incorporate 2,3-Dimethylvaleraldehyde in the preparation of selective herbicide intermediates. It acts as a carbonyl source in functionalizing aliphatic and aromatic scaffolds during downstream condensation with active moieties. Process engineers maintain tight input ratios for desired isomer distributions, enabling stable and effective herbicidal formulations that comply with crop protection residue controls.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • Regulation (EC) No 1107/2009 for pesticide active substances
    • ISO 9001:2015 certified process documentation
    • National Environmental and Residue Regulations (country-specific)

    Typical usage ratio

    • Generally 0.8–2.5 wt% of total reactant input; ratio depends on herbicide class and selectivity profile of the final formulation.

    Downstream process integration

    • Charged into batch condensation reactors post-catalyst addition
    • Integrated during early synthesis to allow downstream derivatization
    • Continuous product sampling for conversion and by-products
    • Product recovery by aqueous-organic extraction and column purification

    Final product types

    • Active intermediates for selective herbicides (e.g., branched chain-ketone-substituted compounds)
    • Precursor molecules for eco-labeled weed control agents
    • Bioactive auxiliaries in crop-protection blends
    • Fine chemical bases for pilot-scale field testing

    4. Plasticizer and Polymer Additives Manufacturing

    2,3-Dimethylvaleraldehyde serves as a functional aldehyde in specialty plasticizer and copolymer additive design. It enters the process as a short-branch chain modulator, reacting with diols and other monomers in transesterification or aldol-coupling systems. Technical staff control stoichiometry to manage polymer flexibility and migration resistance in sensitive PVC blends, elastomers, or specialty resins.

    Industry compliance standards

    • US FDA CFR 21 Section 177.2600 for indirect food-contact polymers
    • ISO 9001:2015/ISO 14001:2015 for polymer production management
    • OECD SIDS chemical risk assessment for environmental safety
    • EU RoHS & REACH SVHC screening for final product

    Typical usage ratio

    • Final dosage typically ranges from 2–6 phr (parts per hundred resin) depending on desired migration resistance and plasticizer compatibility in the resin system.

    Downstream process integration

    • Dosed into polymerization tanks during monomer blending
    • Reacts via aldol or esterification pathways under controlled pH and temperature
    • Monitored by GPC and FTIR to confirm integration and uniformity
    • Residual aldehyde levels assessed by HPLC prior to compounding

    Final product types

    • Specialty plasticizers for medical-grade and food-contact polymers
    • Flexible PVC resins for cable or film manufacturing
    • Elastomer additives in automotive and packaging compounds
    • High-performance copolymers for sealants and coatings
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    Certification & Compliance
    More Introduction

    2,3-Dimethylvaleraldehyde: Practical Insights From Our Manufacturing Floor

    Direct Experience with Chemistry: Delivering Reliable 2,3-Dimethylvaleraldehyde

    Every day in our factory, we don’t just crank out molecules to fill catalogs. We step onto the resin floors with a clear sense of responsibility: keep our processes consistent, pure, and attuned to what real users require. 2,3-Dimethylvaleraldehyde isn’t the loudest name in the aldehyde world, but it’s earned its place because of its unique structure, easy handleability, and strong performance in reaction chains where other aldehydes just won’t do the job as smoothly.

    Understanding this compound goes beyond reading off a CAS number or boiling point. Our technicians, weighing and mixing batches daily, pay close attention to purity because downstream synthesis counts on clean starts. 2,3-Dimethylvaleraldehyde’s structure, with its dimethyl branching on a valeraldehyde backbone, offers important steric effects for specialty chemists. This branching manages to both shelter the reactive aldehyde and tune its reactivity—a difference chemists can feel in-person during catalytic steps and condensation reactions.

    Setting the Standard: Our Routine Control and Real-World Purity

    Bench chemists and process engineers alike know the headaches that come from unseen impurities. In our plant, monitoring these details takes real people’s eyes and judgment, not just readouts. Our workers undergo regular training to catch subtle shifts in color, clarity, or odor that signal when a batch needs extra cleanup or rerouting—skills handed down from veteran hands to new hires. We maintain single-batch traceability, so every vial tells its story, from original feedstock through to final inspection.

    The 2,3-Dimethylvaleraldehyde we send out typically hits 98% or higher on purity, which means users working on precision flavors or intermediates don’t get tripped up by off-notes or side reactions. Our in-house GC and NMR stations run daily, keeping standards tightly aligned to published references. We see the market’s less controlled offerings, and have had emergency calls from clients trying to rescue runs fouled by color bodies and byproducts left in poorly-purified batches. There’s no substitute for doing it right from the first step through bottling.

    Tangible Utility: Where and Why This Compound Matters

    Formulators and synthetic chemists rely on the subtle reactivity of 2,3-Dimethylvaleraldehyde for both its predictable outcomes and its branching, which helps control unwanted side products during functionalization. In fragrance design, this aldehyde gives crisp, green facets that linear counterparts simply miss. The slight steric shielding from its methyl groups tunes volatility, helping it stick around a bit longer where lighter aldehydes flash off.

    Pharmaceutical and fine chemical routes benefit from the balance this compound strikes: reactive enough for nucleophilic addition, but not so reactive that controlling regioselectivity turns into a guessing game. Industrial processes appreciate its boiling range, which makes separation and recovery feasible with basic distillation gear. We’ve watched partners in pilot plants use it as a building block for branched alcohols, flavors, and pharma intermediates, trusting our batch-to-batch consistency so reaction optimization work isn’t wasted on fluctuating starting material.

    Product Details That Matter

    The chemical formula reads C7H14O, and the molecular weight sits at 114.19 g/mol. Our material typically comes clear to pale yellow, with a sharp aldehydic aroma—a sensory check our staff still use alongside analytical confirmation, because the nose often flags issues quicker than machinery. We bottle in amber glass or HDPE, capped firmly, because this aldehyde’s reactivity can let ambient moisture creep in if packaging gets sloppy.

    Every outgoing batch ships with its own certificate of analysis, as clients in regulated markets (and those simply working to exacting internal standards) have told us time and again they can’t tolerate guesswork. They ask about storage more than almost anything else, because aldehydes are known to oxidize or polymerize under poor conditions. We seal tightly, ship fast, and recommend cold, dry storage for long shelf life, a lesson learned through years of shipping into climates where heat or humidity would otherwise trim product performance.

    Comparing to Other Aldehydes: More Than Just Carbon Counts

    Chemists working with straight-chain valeraldehyde or isovaleraldehyde often notice the concrete improvements 2,3-Dimethylvaleraldehyde brings. It’s all about those two methyl groups. In practical terms, that branching works as a buffer, tuning reactivity down just enough to manage side reactions better than with n-valeraldehyde, where the open chain leaves the aldehyde entirely exposed. The branched skeleton also affects the boiling range and volatility, so formulators balancing flash points and evaporation curves for flavors or coatings can fine-tune outcomes by swapping backbone structure.

    From a manufacturing angle, this aldehyde offers a sweet spot for stability during shipping across temperature swings. Where lower-mass aldehydes routinely need refrigerated shipping, and higher analogues push solubility issues, 2,3-Dimethylvaleraldehyde can ride in the standard chemical supply chain with less risk of degradation or loss. There’s a reason process engineers choose this over n-pentanal in select alkylation chains—the difference shows up clearly in downstream isolation and even final product sensory panels.

    The smaller, linear aldehydes attract for price and easy sourcing, but repeated feedback from fragrance, pharma, and agrochemical labs drives home the real-world value of 2,3-Dimethylvaleraldehyde’s tailored balance. Fewer unwanted byproducts at the end of a run means leaner purification costs, higher isolated yields, and less troubleshooting between lots.

    Learning from Mistakes: Real Production Challenges and Fixes

    It hasn’t always been smooth running. In our early years, we saw oxidation byproducts spike on batches left too long under ambient light or warmth. Lessons learned: we upgraded storage areas, retrained staff, and invested in better analytical monitors to spot change as soon as it happens. Today, we run quality checks not just at the end, but through multiple stages of synthesis, knowing that errors caught early stay cheap to solve.

    Supply chain hiccups sometimes threaten feedstock purity, so we double-inspect incoming raw material and never hesitate to reject a shipment rather than risk downstream contamination. Regular customer feedback helps us tighten specifications further: a hint of yellowing, a slight change in aroma, or a mismatch in chromatogram peaks will prompt us to rerun purification, even if on-paper values look within range. This hands-on, no-shortcut approach keeps recalls at zero and repeat business steady.

    We also know that mistakes don’t just grow out of our own shop. Sometimes customers call us after being caught out by low-grade imports or poor warehouse conditions. We do our best to help them recover, often running analyses to sort fact from panic and shipping fresh batches with confirmed specs to get operations back on track. Our experience fixing problems with the material in the field helps us spot brewing issues more quickly each year.

    Environmental Awareness: Managing Risks and Promoting Safer Use

    Producing and handling 2,3-Dimethylvaleraldehyde means nobody gets to take shortcuts with safety. Experienced line crews understand not just the basics of PPE and ventilation, but the finer points that keep residual emissions and waste within strict local limits. We recycle still bottoms whenever possible, minimize solvent loads through lean process engineering, and route unavoidable vent streams through dedicated treatment—efforts that grew out of both regulatory requirements and our own interest in reducing loss and risk.

    We participate in chemical stewardship partnerships, keeping tabs on environmental toxicology data as it becomes available, and refining in-plant practices to minimize exposure risks. The relatively low acute toxicity allows for safe handling under normal operating procedures, but vapors still pack a punch without proper airflow. Our safety instructors keep staff sharp on recognizing early symptoms of overexposure and handling emergency containment steps—lessons that have kept incident rates at a minimum compared to older chemical plants running more lax standards.

    We treat every drum or flask as a traceable responsibility, so if questions arise downstream, we’re equipped to provide batch data, help with safe disposal guidance, or even retrace steps if unexpected residues show up. This approach grows out of daily familiarity with the material and the real risks it poses if taken less seriously.

    Supporting Diverse Applications: Field-Proven Performance

    Customers in flavor and fragrance sectors value the specific green, fresh, and subtly woody notes that 2,3-Dimethylvaleraldehyde brings, a complexity missing from more linear or less-substituted aldehydes. We’ve seen feedback from perfumers who blend in tiny percentages to lift and brighten top accords, reporting improvements in both projection and longevity. By delivering a product that stays true batch-to-batch, we help fragrance houses avoid costly re-formulations and downtime.

    In synthetic and pharmaceutical labs, this compound slots neatly into routes where ring formation or chain extension needs careful control. Users have asked us to support scale-up runs, and we answer with custom packaging and real-time status updates, making sure there’s no interruption from kilo sample to tonne scale. Consistency in the starting compound makes their optimization work practical—time saved from chasing purity in each lot pays off in faster approval and launch cycles.

    Agrochemical researchers like the controlled activity that comes from the compound’s structure, allowing them to build balanced intermediates feeding into crop-protection or growth-regulation projects. It’s rewarding to see our work powering innovation in fields as different as orchard management and custom pharmaceuticals. Seeing that cross-pollination inspires us to keep strict control over both traditional product lines and requests for tailored grades.

    Addressing Supply Challenges: Real-World Solutions

    Chemical manufacturing faces its tests: feedstock volatility, regulatory shifts, and logistics snags stand front and center. After supply chain turbulence in recent years, we invested in securing multiple sources and qualifying alternatives rigorously—diversification means production never pauses just because one input lags. Our stock management uses both digital systems and real hands-on checks, with staff reviewing every incoming and outgoing lot rather than relying only on automated notices.

    By fostering long-running relationships with both customers and raw supply partners, we catch warning signs early, from weather disasters to sudden legislative changes. Our factory runs lean but never at the expense of reserve capacity for priority clients. During the last logistics bottlenecks, we kept our largest regular buyers running by drawing down safety stocks and prioritizing urgent needs, demonstrating a long-term view that values reliability.

    We never stretch our storage or delivery promises beyond real capacity—if an order risks hitting a pinch, we’ll call partners early and offer either alternatives or creative solutions like multi-stage delivery or on-site mixing. It’s not just a matter of good service but of protecting hard-earned trust and ensuring downstream operations keep moving.

    Continuous Learning: Staying Ahead in a Changing Market

    Markets shift and chemistry evolves. In our plant, operators and product engineers meet at regular intervals to share observations from the field. Patterns emerge—what works, what needs adjustment, and what users ask for even if the product works perfectly today. Upgrades in purification, improved bottling ergonomics, and even tailored labeling came directly from listening to repeated, specific customer advice.

    We keep close tabs on unfolding regulatory expectations for all aldehyde derivatives, adjusting not only internal documentation but also how data gets communicated to end-users. In an age of tightening import/export rules, scrupulous record-keeping and accredited test data make a difference. We update staff certifications and safety protocols regularly, so front-line employees know what’s changing as swiftly as product managers do.

    We participate in technical forums and knowledge exchanges with both upstream and downstream partners. Real customer stories drive improvement more than any committee ever could. Where a new synthetic pathway emerges that could use our aldehyde, we make sure our product can meet (or exceed) fresh technical requirements so new collaborations launch from a solid foundation.

    Why Direct Manufacturing Matters: No Substitutes for Experience

    Manufacturing chemicals directly means living with every detail—from incoming drum stencils to workbench spills and final labels. The difference this makes stands out for our customers year after year. There’s no hiding behind generic documentation or blaming an upstream supplier. Owning the process all the way keeps standards high. Our crew brings a sense of real ownership to each batch, understanding that every time our drum lands on a lab dock or a pilot plant bench, it represents the sum of everyone’s steady hands and decisions.

    This makes us sticklers for quality but also quick to spot opportunities for collaboration and improvement. Our plant’s steady output keeps us competitive even in lean years, and our willingness to solve problems head-on gives long-standing clients peace of mind. We’re always looking to strengthen both our product and the services supporting it, taking pride not in grand promises but in the day-to-day delivery and reliability that reshapes how chemists, perfumers, and engineers view 2,3-Dimethylvaleraldehyde.

    Ready for the Demands of Modern Synthesis

    No matter how digital and automated chemical supply becomes, hands-on manufacturing keeps our focus sharp. 2,3-Dimethylvaleraldehyde poses enough quirks and potential to keep us improving every year, from process tweaks to better customer service and traceable safety data. The more we invest in plant knowledge, sensor updates, and human expertise, the stronger the product that goes into each real-world application. Customers aren’t just looking for molecules; they’re betting on our real-world experience and the invisible reliability built into every bottle.

    Every shipment we send answers the call for purity, stability, and trusted supply. It reflects countless hours in the plant, lived experience with process chemistry, and a focus on empowering the individuals and teams who turn raw molecules into products the world depends on. With 2,3-Dimethylvaleraldehyde, our commitment runs from the reactor floor to every customer’s bench—today and in the future.