Products

2-Methylvaleraldehyde

    • Product Name: 2-Methylvaleraldehyde
    • Alias: isovaleraldehyde
    • Einecs: 210-249-5
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    634707

    Chemical Name 2-Methylvaleraldehyde
    Cas Number 96-17-3
    Molecular Formula C6H12O
    Molar Mass 100.16 g/mol
    Appearance Colorless liquid
    Boiling Point 123-124 °C
    Melting Point -79 °C
    Density 0.810 g/cm3 at 20 °C
    Refractive Index 1.404-1.406
    Flash Point 21 °C (closed cup)
    Solubility In Water Slightly soluble
    Odor Pungent, fruity
    Pubchem Cid 17689

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

    Packing & Storage
    Packing 2-Methylvaleraldehyde is supplied in a 500 mL amber glass bottle with a tight-seal cap to prevent light and air exposure.
    Shipping 2-Methylvaleraldehyde should be shipped in tightly sealed containers under cool, dry, and well-ventilated conditions. Avoid exposure to heat, open flames, and direct sunlight. Classified as a flammable liquid, it must comply with relevant hazardous material transport regulations, using appropriate labeling and documentation to ensure safety during transit.
    Storage 2-Methylvaleraldehyde should be stored in a cool, dry, well-ventilated area, away from heat, sparks, open flames, and incompatible materials such as strong oxidizers and acids. Keep the container tightly closed and protected from light. Store in a chemical safety cabinet designed for flammable liquids. Use appropriate personal protective equipment (PPE) when handling and ensure spill containment measures are in place.
    Application of 2-Methylvaleraldehyde

    Applications of 2-Methylvaleraldehyde in Industrial Manufacturing

    As a direct manufacturer of 2-Methylvaleraldehyde, we supply this aliphatic aldehyde to clients in several specialized downstream sectors. Its distinctive structure makes it suitable for both chemical synthesis and fine industrial formulations. Below, we outline major real-world applications detailing compliance, formulation, process steps, and final market-ready products.

    1. Flavor and Fragrance Compound Synthesis

    This aldehyde serves as a key intermediate in manufacturing flavor and fragrance bases, especially in the construction of fruity, nutty, and green top notes. Manufacturers use it to synthesize specialty aroma chemicals and as a building block in custom blends for food and personal care. Due to its reactivity, formulation teams closely control reaction conditions to produce consistent aromatic profiles and ensure food and perfume-grade purity.

    Industry compliance standards

    • IFRA Standards for Fragrance Ingredients
    • European Union Flavorings Regulation (EU) No 1334/2008
    • US FDA 21 CFR Part 172 (Food Additives Permitted for Direct Addition to Food)
    • Japan’s Positive List System for Flavors

    Typical usage ratio

    • Blending at 0.01–1.5% by weight in concentrate, adjusted by desired aromatic intensity and compliance with maximum residue limits

    Downstream process integration

    • Used as a primary building block during the condensation or acetalization phase of perfume or flavor compounding
    • Reacted with alcohols or ketones under controlled temperature and inert conditions
    • QC confirmation for aldehyde purity before blending

    Final product types

    • Fruit and nutty flavor concentrates for beverages and confections
    • Top note ingredients for fine fragrances and EDTs
    • Scent components for household and industrial air care
    • Toiletry fragrances including shampoo, soaps, and lotions

    2. Pharmaceutical Intermediate Manufacturing

    2-Methylvaleraldehyde enters active pharmaceutical ingredient (API) synthesis, especially for certain sedative and anticonvulsant drugs. Medicinal chemistry teams employ it in select alkylation and condensation reactions, often as a precursor for substituted alcohols and heterocyclic compounds. Its quality and traceability must comply strictly with pharmaceutical GMP standards, with in-process controls at each chemical transformation step.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP and European Pharmacopoeia monographs on API intermediates
    • FDA DMF (Drug Master File) system registration where required
    • ISO 9001 quality management with focus on chemical traceability

    Typical usage ratio

    • 1–5 mole equivalents per synthesis batch, depending on the target molecule’s reaction scheme and yield optimization needs

    Downstream process integration

    • Used during pre-final synthesis stages for key pharmaceutical intermediates
    • Introduced via batch or semi-continuous feeding under inert atmosphere
    • Subjected to analytical verification by HPLC/GC before subsequent coupling or reduction steps

    Final product types

    • API precursors such as substituted valproic acid derivatives
    • Core structure elements in select anticonvulsant and sedative APIs
    • Specialty intermediates for research-scale medicinal chemistry
    • Reference standards for pharmaceutical QC laboratories

    3. Agrochemical Active Substance Synthesis

    This aldehyde acts as a starting material in the industrial synthesis of several insecticide and plant growth regulator intermediates. Agrochemical formulators use it in controlled aldol condensation and reductive amination chemistries when manufacturing specific pyrethroid and related compound families. Regulatory approval processes require detailed tracking of input substances throughout the batch life cycle.

    Industry compliance standards

    • OECD guidelines for chemical safety in agrochemical production
    • FAO and WHO Pesticide Specifications
    • REACH Registration, Evaluation, Authorisation and Restriction of Chemicals (EU)
    • ISO 17025 for testing and calibration laboratories where residues are monitored

    Typical usage ratio

    • 0.5–4% by mass in reaction mixtures, depending on target synthesis conversion and scale

    Downstream process integration

    • Fed during intermediate step of pyrethroid synthesis
    • Reacts with other substrates under basic or catalytic conditions, then isolated by distillation or crystallization
    • Monitored by GC-MS for trace aldehyde content before isolation of active ingredient

    Final product types

    • Pyridyl and phenoxy derivatives for crop protection formulations
    • Key intermediates for selective herbicides and fungicides
    • Precursors for pheromone mimics in pest control
    • Custom-synthesized plant growth regulators

    4. Synthesis of Plasticizers and Polymer Modifiers

    Chemical processers employ 2-Methylvaleraldehyde in the preparation of specialty plasticizers used to enhance flexibility in polyvinyl chloride (PVC) and related polymer matrices. Through acetalization or oxo-alcohol synthesis routes, the aldehyde becomes part of high-performance additives for flexible film, cable sheathing, and sealant applications. Polymer-grade batches demand low-wax, high-purity profiles to prevent migration or volatilization in end use.

    Industry compliance standards

    • EU Regulation (EC) No 10/2011 on plastic materials and articles for food contact
    • US FDA 21 CFR 177.2600 for rubber articles intended for repeated use
    • EN ISO 9001 for quality management in polymer additive production
    • ASTM D3421 for migration testing in flexible PVC compounds

    Typical usage ratio

    • 1.5–6% by mass as additive/intermediate, adjusted for chain-length distribution in finished plasticizers

    Downstream process integration

    • Introduced during the early stage of oxo or ester plasticizer synthesis
    • Processed via catalytic hydrogenation or acetal formation
    • Purified by vacuum distillation and checked for residual aldehyde content before blending into PVC formulations

    Final product types

    • Polymeric plasticizers for PVC cables and hoses
    • Flexible PVC films for packaging
    • Sealant and adhesive polymer modifiers
    • Custom plasticizer blends for automotive interiors

    5. Production of Specialty Solvents

    This intermediate enables the manufacture of high-boiling, low-polarity solvents ideal for coatings, inks, and cleaning solutions. Typical processes involve its reaction with alcohols or amines to yield solvent molecules with targeted volatility and solvency characteristics. Quality controls focus on aldehyde removal in the final solvent cut, ensuring regulatory compliance for sensitive industrial and consumer applications.

    Industry compliance standards

    • US EPA TSCA Inventory for solvent chemicals
    • EU CLP Regulation (EC) No 1272/2008 for solvent labeling
    • Chinese GB 18582-2020 (Limit of harmful substances in coatings)
    • ISO 17025 for verification of purity and composition

    Typical usage ratio

    • Used as 5–30% of the total reactant mixture in solvent manufacture, batch scale dependent

    Downstream process integration

    • Charged during initial synthesis of targeted ester or ether solvents
    • Undergoes reaction with controlled catalysts and temperature profiles
    • Final solvent mixtures tested to meet industrial and consumer grade standards

    Final product types

    • Printing ink solvent blends
    • High-boiling point paint thinners
    • Electronic cleaning agent bases
    • Industrial degreasing solvents

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    Certification & Compliance
    More Introduction

    2-Methylvaleraldehyde: A Reliable Ingredient in Modern Synthesis

    Moving Beyond Routine: Why 2-Methylvaleraldehyde Matters in Real-World Manufacturing

    Experience in chemical manufacturing often teaches lessons that no catalog or textbook can offer. In handling 2-Methylvaleraldehyde across countless batches, I’ve seen its real advantages and its role in shaping downstream processes. This aldehyde continues to draw the attention of chemists, fragrance formulators, and pharmaceutical developers because of both its performance and its practical utility on the shop floor.

    We maintain a steady production model for 2-Methylvaleraldehyde, aiming for purity above 98%, with careful control over residual alcohol and acid numbers. Years spent refining our process have paid off with a stable, pale liquid—easily manageable, not prone to rapid oxidation when stored correctly, and always consistent from drum to drum. No shortcuts go into our purification, so downstream users skip headaches caused by inconsistent bench results or unwelcome contaminants.

    A Closer Look at the Specifications: What We Deliver and Why It Matters

    Every manufacturer discovers that good enough always costs more in the long run. We test for specific gravity around 0.8 to 0.82 at 20°C and maintain a clear, water-white appearance. Our GC analysis routinely confirms a distinct main peak without significant byproducts. We keep water content below 0.5% and monitor each batch for traces of common impurities. The boiling point, in the 120°C–123°C range (at atmospheric pressure), allows for straightforward fractionation and integration into complex processes.

    We ship product in tightly sealed steel drums or IBCs, based on customer requirements. Our logistics team prioritizes quick transfers to endpoint warehouses to prevent unnecessary exposure to air and temperature swings that might compromise quality. Strict warehouse rules, enforced by decades of practical experience, shield bulk lots from sun and weather changes, which could trigger color change or aroma loss. The risk of uncontrolled peroxidation drops considerably with these measures.

    2-Methylvaleraldehyde Usage: From Scent to Synthesis

    Over years in production, customer requests shed light on the wide uses of 2-Methylvaleraldehyde, and each new project brings its own challenges. One of the earliest and most reliable uses comes in perfumery and fine fragrance chemistry. This aldehyde lends a fresh, green, fruity nuance that pairs well with citrus and herbal elements. Formulators appreciate the substance for its ability to act as a subtle modifier, stretching and elevating more dominant notes. Our customers in the fragrance industry regularly point out the difference a high-purity batch makes—a purer aldehyde means fewer off-odors and better control during blending.

    Synthetic pathways in both pharmaceuticals and specialty chemicals frequently require an active C5-aldehyde that can take a Grignard, nucleophilic addition, or aldol reaction without significant interference from secondary functional groups. Our product fits these roles due to its clean profile and reliable yield. Downstream, it forms the backbone for producing certain amino acids, specific pharmaceuticals, and a range of flavor and aroma ingredients. What stands out is not simply its reactivity, but its selectivity in certain stepwise synthesis, making it valuable beyond basic laboratory applications.

    Manufacturers of herbicides and agricultural intermediates also rely on our 2-Methylvaleraldehyde as a precursor or building block. We field regular requests for technical consultation, helping process engineers maximize yield or navigate safety considerations in larger batch sizes. Because we’ve solved these puzzles in our own plant, our advice is rooted in day-to-day reality—not theory.

    Comparing 2-Methylvaleraldehyde to Similar Aldehydes

    Customers often ask about substituting with similar branched-chain aldehydes or even switching to unbranched analogs like n-valeraldehyde. Years of handling both have shown that while the molecular structure seems a minor tweak, performance varies in the real world.

    n-Valeraldehyde, as an unbranched C5 aldehyde, brings sharper, somewhat harsher notes to fragrances and often reacts with more vigor in organic synthesis. 2-Methylvaleraldehyde, with its extra methyl group, brings a smoother, richer sensation in smell and a less aggressive, more directed reactivity. For many synthetic steps, branched aldehydes slow down side reactions, give higher selectivity in Grignard and aldol processes, and support greater stability in intermediate storage. That means higher reliability, easier purification, and sometimes lower environmental load due to cleaner downstream waste streams.

    From the supplier side, handling and transportation prove easier as well. Minor shifts in physical properties such as boiling point and reactivity often impact the efficiency of solvent recovery and recycling systems. Working with 2-Methylvaleraldehyde yields less corrosion and fewer maintenance interruptions compared to similar compounds, mainly due to its stability and lower volatility at ambient conditions. Across hundreds of tons shipped yearly, such seemingly small improvements save real resources.

    Manufacturing Focus: From Feedstock to Finished Aldehyde

    We invested heavily in feedstock quality, sourcing from reliable upstream partners to avoid the impurities that spoil downstream work. Our reactor trains run under carefully monitored temperatures and controlled catalyst concentrations, ensuring each batch reaches its endpoint smoothly. Constant vigilance on wash steps and caustic scrubbers removes byproducts before final distillation, a step many overlook but crucial for delivering a colorless, pure product that resists degradation over months of storage.

    Process improvements over the years brought down our waste output by more than a quarter. Our own operators suggested tweaks to condenser water monitoring and reflux ratios, and direct measurement of vent losses led to in-line scrubber installation, cutting operational hazards and improving plant safety. This concern for both efficiency and environmental responsibility runs deep. Each ton of aldehyde produced draws from decades of iterative refinement and deep familiarity with the equipment—lessons often missed in high-turnover facilities or among traders who never walk the plant floor.

    Practical Safety Considerations and Handling Insights

    As a volatile, flammable organic compound, 2-Methylvaleraldehyde demands attentive handling. Operators know the faint but distinct fruity-green aroma signals release, so well-designed ventilation systems back up all drum-loading and sampling activities. We maintain routine spark and static audits in all storage areas, and decanting tools are always grounded. Proper PPE use is non-negotiable, not for compliance alone but because hands-on experience underscores how quick vapor release can happen if seals or gaskets fail. Rather than viewing safety solely as a checklist, we rely on lessons passed between senior foremen and new operators: open drums only in clean, aired rooms, and always double-check lid tightness before storage.

    Over the years, a steady record with regulators and local authorities grew out of listening to frontline workers who know better than anyone where trouble can start. Direct feedback helped shape our spill response and backup containment plans. Storage areas follow best practice: cool, shaded, well away from oxidants and acids. This minimizes the risk of unwanted polymerization—rare but always worth guarding against.

    Supplying to Global and Local Markets: Meeting Customer Demands

    Each market brings its own set of expectations. We found that European buyers often require full traceability from feedstock to shipment, and we built customized reporting systems that follow product from receipt of raw alcohols to final, barcoded drums on the outbound dock. Asian markets focus tightly on spec adherence and often call for split-batch sampling pre-shipment—something our in-house lab is equipped to handle without delay. North American customers sometimes prioritize quick turnarounds and on-demand shipments. We run our production calendar closely in sync with local ports and established carriers, ensuring product ships as soon as order volumes meet transport minimums. Any delays or disruptions on the larger logistics chain immediately get flagged to customers, so project planning stays predictable.

    Repeat business in these different environments depends not only on maintaining consistent batch quality, but also on having direct technical communication. Our technical team often serves as more than just troubleshooting support; end-users often seek advice during process optimization, scale-up, or formulation changes. The flow of information goes both ways—real performance feedback from users informs our own efforts to refine purity or improve long-term stability.

    Cost, Availability, and Supply Chain Considerations

    Manufacturers everywhere feel the pinch of volatile feedstock prices and the shifting landscape of regional transportation. By partnering directly with refineries and investing in in-house storage, we buffer the swings in acetone, n-butyraldehyde, and hydrogen costs so downstream customers don’t face unexpected price spikes. It means planning months out, tracking not just commodity reports but also local infrastructure disruptions—flooding, plant shutdowns, strikes. These challenges rarely draw public notice, but inside the industry, they regularly test the reliability of any supplier.

    Customers sometimes ask for flexible delivery schedules or just-in-time stocking. Our policy aims to build in at least two weeks’ on-site reserve. Even so, force majeure events still threaten the best-laid plans. In those moments, our direct control over production means we can reschedule other products rather than leaving all customers on hold—a benefit not seen with third-party resellers or casual brokers. Flexibility comes from knowing both the recipes and the realities of plant operation, a perspective built from years of managing actual output and inventory, not only order books.

    Practical Scenarios: How 2-Methylvaleraldehyde Shapes Industrial and R&D Outcomes

    Laboratory requests almost always highlight the value of real-world performance. Our R&D contacts need gram quantities for method development, while production buyers require metric tons with every delivery. Few other aldehydes bridge this gap so well. Recent fragrance launches have leaned into subtle, ‘green’ aldehydic top notes—and our ability to supply both pilot lots and full commercial runs means new formulas scale smoothly without unwelcome surprises. Downstream purification is rarely needed, thanks to our strict focus on batch consistency and minimization of color contributors.

    In API synthesis, 2-Methylvaleraldehyde steps in wherever selectivity matters. Process chemists count on its low tendency to over-oxidize during transfer steps or intermediate storage. That stability means milder reaction conditions, less need for stabilizers, and greater throughput across the production line. Over the past few years, several clients have shared data sets comparing our output to competitive grades, reporting time savings and lower impurity-bearing waste volumes—a practical benefit in plant economics and environmental controls alike.

    In agricultural synthesis, the molecule serves as a building block for both well-known and novel actives. Stable delivery schedules and assurance of on-spec content mean formulators spend less time rejecting lots or testing side reactions, freeing attention for new compound discovery and refinement. As regulations grow ever tighter on trace contaminants, our advanced purification steps increasingly come up as a decisive purchasing factor.

    Facing and Solving Industry Challenges: Sustainability, Regulation, and Technology

    Modern chemical manufacturing never stands still. Over the past decade, demand for greener processes and reduced emissions pushed us to invest in both cleaner technologies and solvent recovery systems. In 2-Methylvaleraldehyde production, we’ve adopted strict recycling regimes for solvents and secondary streams, informed by rigorous mass-balance calculations. Operators carry out in-line checks that quickly flag any deviation in reactor performance, catching contamination before entering final distillation. Our waste management success draws from persistent attention to detail, regular review of process bottlenecks, and incorporating feedback both from authorities and plant staff.

    Increasing regulation on VOCs and hazardous organics prompted equipment upgrades—high-efficiency scrubbers and improved containment that reduce our emissions well below current legal thresholds. Documentation, sample archiving, and chain-of-custody protocols grew more complex but are now integrated into every production step. Regulatory audits pass more smoothly each year, thanks to this groundwork. Customers notice, not just in paperwork but in product reliability and confidence in origin.

    Digital technology also transformed batch-tracking and quality assurance. Decades ago, a missing log or misplaced sample sometimes went unnoticed; now, integrated plant management software traces every data point, from reactor charge to outgoing drum serial. On more than one occasion, digital traceability allowed us to pinpoint the exact root of minor off-spec issues—and to correct them before they reached the customer. Seeing the immediate impact of these investments proves again why hands-on manufacturing beats arm’s-length trading every time.

    Supporting Innovation: Tailoring to Customer Needs and Market Evolution

    As chemistries evolve, we see ever-increasing requests for custom grades or modified packaging. Some end-users require ultra-low moisture content for specialized synthetic applications. We have responded by outfitting our filling lines with in-line Karl Fischer detection and inert gas blanketing, maintaining moisture levels down to a few hundred ppm. This responsiveness arises not from rigid adherence to old recipes, but from day-to-day conversations with operators and chemists whose needs drive us forward.

    Requests for small-scale, high-purity or isotopically labeled lots occasionally come through from research groups or pilot plant buyers. Our team maintains flexibility and open communication, taking pride in supporting both long-term partners and one-off projects that propel the industry ahead. Flexibility does not mean inconsistency—it means maintaining control, focus, and a clear understanding of the practical needs of synthesis professionals. Those requests drive our everyday improvements, and we see first-hand how they ripple outward to shape better products, safer plants, and higher standards across the field.

    Final Reflections: Manufacturing Beyond the Brochure

    After years in production, sales, and technical support, it’s clear that the real value behind any batch of 2-Methylvaleraldehyde comes not from a slick product sheet, but from accumulated expertise and direct attention to detail. Customers count on us for repeatable quality, clear communication, process insights, and knowing that each drum was cared for from start to finish by people who know the plant, the chemistry, and the challenges of modern industry.

    2-Methylvaleraldehyde remains more than just a molecule on a spec sheet. Its reliable performance, rich history, and day-in, day-out function in the field prove its worth. For anyone facing the daily demands of research, synthesis, or high-volume production, choosing a trusted source with deep hands-on experience means more than just smooth transactions—it means smoother operations, fewer surprises, and results that stand up to real-world conditions.

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