Products

4-Methylvaleronitrile

    • Product Name: 4-Methylvaleronitrile
    • Alias: Isovaleronitrile
    • Einecs: 252-028-1
    • 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

    866776

    Cas Number 6304-02-9
    Molecular Formula C6H11N
    Molecular Weight 97.16
    Iupac Name 4-Methylpentanenitrile
    Synonyms Isohexanenitrile, 4-Methylvaleronitrile
    Appearance Colorless to pale yellow liquid
    Boiling Point 146-148°C
    Density 0.803 g/cm3 at 25°C
    Flash Point 38°C (closed cup)
    Solubility In Water Slightly soluble
    Purity Typically >98%
    Smiles CC(C)CCC#N

    As an accredited 4-Methylvaleronitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250g of 4-Methylvaleronitrile is securely packaged in an amber glass bottle with a screw cap, featuring a hazard label.
    Shipping 4-Methylvaleronitrile should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It must be labeled according to hazardous material regulations due to its flammability and potential toxicity. Transport should comply with local, national, and international regulations, using appropriate packaging to prevent leaks or contamination during transit.
    Storage 4-Methylvaleronitrile should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from sources of ignition, heat, and incompatible materials such as oxidizing agents. Ensure the storage area is clearly labeled and protected from moisture and direct sunlight. Proper containment prevents leaks and minimizes vapors. Follow all relevant chemical storage regulations and safety recommendations.
    Application of 4-Methylvaleronitrile

    Applications of 4-Methylvaleronitrile in Industrial Manufacturing

    4-Methylvaleronitrile supports several specialized chemical sectors as an essential intermediate. Our manufacturing expertise ensures consistent quality to support the scale and compliance requirements faced by industrial partners worldwide. Below are the key areas in which downstream users leverage this material for differentiated applications.

    1. Agrochemical Synthesis for Herbicide Intermediates

    Major crop protection formulators utilize 4-Methylvaleronitrile as a key alkyl nitrile component in the multi-stage synthesis of certain selective herbicide intermediates. Its structural properties provide reactivity for introducing side chains during condensation and amination reactions under controlled conditions. This application serves large-volume herbicide productions requiring strict traceability, batch purity monitoring, and compliance with agri-regulatory frameworks. Parameters like raw material purity, stability during exothermic steps, and avoidance of residual precursor carryover are rigorously monitored throughout process design and scale-up to commercial quantities.

    Industry compliance standards

    • EU Regulation (EC) No 1107/2009 (Plant Protection Products)
    • U.S. EPA 40 CFR Part 180 (Pesticide Tolerances and Residue Levels)
    • China GB 2763 – Maximum Residue Limits for Pesticides in Food
    • ISO 9001:2015-certified production process controls

    Typical usage ratio

    • Represents 3–8% of total herbicide intermediate batch mass; exact amounts depend on downstream chain length and reactivity required.

    Downstream process integration

    • Added during the initial alkylation or condensation stage; fed into jacketed reactors and monitored for controlled temperature and pressure profile to limit side products; unreacted excess removed ahead of purification.

    Final product types

    • Technical-grade agrochemical intermediates (e.g. cyano-containing precursors)
    • Formulated pre-emergent and post-emergent herbicides

    2. Pharmaceutical Intermediate for API Coupling

    Pharmaceutical manufacturers incorporate 4-Methylvaleronitrile as an aliphatic nitrile building block during the development of select API synthetic routes, where it allows for precise carbon chain extension and facilitates downstream functional group transformation. Its controlled addition and high chemical purity minimize impurity profiles, supporting downstream reactions such as hydrolysis and reduction, which are critical for pharmacopoeia-compliant API manufacturing. Careful GMP documentation and chain-of-custody traceability apply at all production and handling stages.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • EU GMP Directive 2017/1572/EU
    • USP-NF and Ph. Eur. monograph compliance for intermediates
    • Chemical registration under REACH (EC 1907/2006) for supply in Europe

    Typical usage ratio

    • Customary inclusion at 2–6% by mass in API intermediate production, adjusted for required chain length and molecular design for target pharmaceutical compounds.

    Downstream process integration

    • Used during early building block or intermediate coupling stages; added into pilot or commercial reactors with in-line monitoring for conversion, by-product minimization, and impurity profiling prior to isolation and further chemical transformations.

    Final product types

    • API intermediates for oral and injectable drug substances
    • Specialty pharmaceutical active ingredients (after further downstream synthesis)

    3. Fragrance & Flavor Ingredient Manufacturing

    In the specialty chemicals sector, 4-Methylvaleronitrile plays a role in the synthesis of selected aliphatic alcohols, esters, and acids used as fragrance and flavor ingredients. The compound undergoes catalytic hydrogenation, hydrolysis, or Grignard reactions to yield intermediates with branched-chain profiles sought after for fruit, dairy, or green sensory attributes. Stringent management of volatile impurities and trace solvents is necessary to comply with food-grade and cosmetics regulations during processing.

    Industry compliance standards

    • IFRA (International Fragrance Association) Standards
    • EU Regulation (EC) No 1334/2008 for flavorings
    • FCC (Food Chemicals Codex) ingredient requirements
    • ISO 22000:2018 Food Safety Management System

    Typical usage ratio

    • Hydrogenation reactions: 2–4% by mass in overall batch size for intermediate synthesis; usage varies by end-ingredient target and process yield.

    Downstream process integration

    • Fed into catalytic hydrogenation vessels or subjected to controlled hydrolysis prior to purification and distillation for target aldehyde, alcohol, or ester intermediate production; process emphasizes removal of trace nitrile remnants and organoleptic QC checks.

    Final product types

    • Branched-chain aliphatic alcohols and esters for fragrances
    • Flavor compounds for beverages, dairy analogs, or confectionery

    4. Custom Polymer and Specialty Elastomer Synthesis

    Polymer chemists use 4-Methylvaleronitrile for chain modification in bespoke copolymer and elastomer resins, especially where branched nitrile groups contribute to elastomer flexibility, solvent resistance, or provide a reactant handle for subsequent functionalization. These processes demand precise raw material dosing and rigorous monitoring to maintain molecular weight distribution and mechanical performance targets. Documentation for each resin batch ensures traceability and compliance for further transformation or compounding in automotive, electronics, or specialty goods.

    Industry compliance standards

    • ISO 9001:2015 for polymer quality management
    • ASTM D638/D412 for mechanical property evaluation
    • RoHS Directive 2011/65/EU (for electrical/electronic applications)
    • GADSL (Global Automotive Declarable Substance List)

    Typical usage ratio

    • Typically dosed at 1–5% by monomer mass in specialty copolymerizations or functional elastomer modifications; adjusted for target molecular architecture.

    Downstream process integration

    • Introduced during initial monomer feed stage in solution or emulsion polymerization at controlled temperature and agitation; downstream includes devolatilization, pelletizing, and physical property testing for intended end-uses.

    Final product types

    • Branched nitrile-containing elastomeric resins
    • Custom copolymers for automotive gaskets, sealing applications, or electronics housings

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    Certification & Compliance
    More Introduction

    4-Methylvaleronitrile: Experience from the Manufacturing Floor

    Introducing the Product

    Working in a chemical plant is never about ticking boxes or pushing bulk out the door. Every product has its quirks and reasons for being, and 4-Methylvaleronitrile stands out in its own way. For those of us involved in the process from raw material sourcing, all the way to final quality checks, this compound does not feel like just another specialty nitrile. Over the years, it has become clear that its molecular structure and response to our purification methods give it a set of advantages that raw numbers alone cannot explain.

    Chemical Model and Specifications

    If you look at 4-Methylvaleronitrile on a molecular level, its formula—C6H11N—hints at a short but branched carbon chain ending in a nitrile group. What matters most during production is how this branching influences its separation, refining, and eventual purity. Our experience shows a consistently sharp boiling point and unusual resistance to common side reactions. This detail significantly reduces the amount of off-cut during distillation, and in an industry where every kilogram counts, that makes a difference.

    A batch fresh from distillation runs clear, with a mild, characteristic odor familiar to any technician who has worked around nitriles. We analyze it by gas chromatography, tracking even trace-level impurities. Average purity generally lands above the 99% threshold, not just on paper but as confirmed with in-house analytical runs for every production lot. Viscosity and reactivity tests show predictable behaviors, which keeps the processes straightforward down the line.

    Applications and End Uses

    As a precursor, 4-Methylvaleronitrile rarely stays in bottles for long. Most requests come from laboratories and pilot plants focused on building more complex molecules. The branched structure makes it a preferred building block for pharmaceutical intermediates. Chemists favor it when they want to explore side-chain modifications without inviting a host of unpredictable byproducts. First-hand accounts from several partner R&D teams confirm its value when scaling up for new drug candidates. Its profile also lends itself to producing specialty plasticizers and performance chemicals.

    Compared to straight-chain analogs, this compound often becomes the go-to where tight control over steric effects in synthesis is necessary. Our own technical staff have run comparison reactions, watching for issues like side reactions or product instability—4-Methylvaleronitrile’s performance repeatedly comes out ahead in these tests. Every time, the strong, consistent yields save headaches for scale-up chemists.

    Handling and Process Considerations

    On the plant floor, we appreciate how this compound comes together. The synthesis requires a careful balance—enough control to keep the branching intact, but robust enough for industrial scale. Temperature, flow rates, and pressure are tightly monitored. The staff have fine-tuned the process through hundreds of batches, learning the best response to unexpected fluctuations. Small deviations in process can lead to significant differences in end purity, so the benefit from a skilled crew becomes clear.

    The physical properties make storage and handling relatively simple compared to more volatile nitriles. As long as the containers remain tightly sealed and under controlled climate, shelf life stays stable. Spills or leaks are rare, but we equip our line operators with dedicated safety protocols and continuous air monitoring to ensure nobody gets caught off guard by vapors. Regular audits of storage tanks and transfer lines further reduce risk.

    Our Experience: What Sets It Apart

    Years of direct experience in manufacturing reveal differences more subtle than can be found in catalog comparisons. 4-Methylvaleronitrile, with its methyl side branch, demonstrates higher resistance to hydrolysis than straight valeronitrile. This has practical implications: fewer byproducts during hydrolysis-based downstream reactions and less catalyst fouling in continuous-flow equipment. These results show up not only in our logs, but also in feedback from end users who rely on the stability for advanced synthesis work.

    The reduced volatility compared to shorter chain nitriles means less direct loss to atmosphere, especially during transfer and storage. For operations managers and plant technicians, this translates into lower material loss, improved containment, and easier regulatory compliance. We track loss rates over dozens of cycles, and the numbers consistently favor this compound in terms of environmental control. You can see it reflected in stack and vent monitoring data.

    Quality Control Built into the Process

    Despite robust process controls, we keep a critical eye on every batch produced. Quality assurance starts with raw material checks, extending through in-process monitoring and final product testing. We regularly run head-to-head tests with commercial benchmarks, not just internal historical data. Trends have demonstrated that our approach—deliberate temperature profiles, clean solvent recovery, and precise reactant dosing—brings out the best in the product.

    Any off-spec batch triggers a full review. Lab staff routinely characterize even minor deviations, pushing our process control team to continually refine the reactor protocols. The result is not just a document in a file—it’s improved product quality and a tighter feedback loop, creating a cycle of improvement that keeps us ahead of just commodity consignment suppliers.

    User Feedback and Real-World Performance

    Customer stories mean more than technical data alone. Research teams working with 4-Methylvaleronitrile mention greater reproducibility in their synthesis runs. Some teams reduced unwanted side products that previously complicated isolation steps, saving up to a full day of post-reaction cleanup. Scale-up projects benefit from the compound’s stability, minimizing downtime for reactor rinsing and decontamination.

    Other manufacturers, especially those who handle pharmaceutical production under tight timelines, report faster validation cycles. Regulatory affairs teams value our traceability and lot documentation, traced back to every raw material delivery. These process records are not just paperwork. They help speed up the all-important qualification routines in new drug development stages.

    Challenges and Continuous Solutions

    Challenges still arise. During periods of high humidity or unexpected environmental shifts, batch variance can creep upward. To counter these, our team introduced closed-system transfer equipment and invested in real-time process analytics. A smart inline sensor network measures moisture, pressure, and reactant ratios during synthesis. Over time, this reduces batch-to-batch variation down to levels rarely matched elsewhere.

    Transport introduces another set of hurdles. Not all shipping companies treat specialty chemicals with the respect they require. To reduce spoilage during transport, our warehouse teams coordinate with logistics partners who understand the specific temperature controls for nitrile compounds. Special container liners and shipment seals demonstrate clear results in extending product shelf-life, as confirmed in follow-up inspection reports.

    Comparisons with Related Products

    Every chemist has their own favorite nitrile, but from a manufacturer’s perspective, the direct comparison with other products reveals specifics you only notice at scale. Straight valeronitrile shares the same core chain length, but lacks the extra methyl branch. This small change shifts reactivity, volatility, and hydrolysis resistance. Our own experience shows that the branched isomer gives more precise control in asymmetric synthesis—an effect confirmed repeatedly in customer reaction runs.

    Larger chain nitriles introduce handling complications. Higher boiling points might sound manageable on paper, but they often demand costly changes in condenser systems or increased energy usage. We’ve had customers try switching, only to return with stories of increased equipment downtime, higher solvent waste, and unpredictable byproduct profiles. Our process feedback and product tracking enable us to advise on these risks, backed up by hands-on troubleshooting if needed.

    Lower chain analogs, such as butyronitrile, bring their own problems—higher volatility, greater toxicity concerns, and more rapid atmospheric loss. Working side-by-side with industrial hygiene teams, we’ve seen a clear advantage in using 4-Methylvaleronitrile for processes requiring both stability and safety. Long-term exposure monitoring over our operations data confirms lower vapor concentrations in work areas handling this product compared to its shorter-chain relatives.

    Responding to Market Demands

    Demand for specialty nitriles comes in cycles. During pharmaceutical development booms, orders spike and stretch plant capacity. Rather than chasing trends, our focus remains on consistent product quality and improving throughput without sacrificing traceability. By investing early in staff training and process automation, we respond more quickly and keep the familiar faces that know the process inside and out.

    Scaling up doesn’t just mean running the same recipe at higher volume. As volume increases, even minor variances become more pronounced. From our side, the incremental improvements in reactor design, cleaning and maintenance cycles, and raw material supplier vetting make large-scale production smoother. Close cooperation with industry partners—both upstream and downstream—keeps us aware of evolving requirements and emerging applications, from new polymer precursors to advanced surfactants.

    Sustainability and Environmental Commitments

    Modern chemical manufacturers cannot ignore the environmental footprint. With 4-Methylvaleronitrile, our focus stays on reducing waste at every step. Closed-loop solvent systems and in-line purge gas recovery keep vent emissions far below regulatory limits. Energy consumption gets tracked with the same rigor as product quality, turning monthly KPIs directly into process improvements. The broader shift toward greener chemistry influences our own formulation of process aids, catalysts, and even additive selection for efficient synthesis.

    Regular investment goes into effluent treatment systems, ensuring that water and scrubber outputs never exceed discharge thresholds. Site audits and customer visits underline these commitments—most visitors leave impressed with the visible focus on clean operations and process transparency.

    Reflections from the Plant Floor

    Many features of 4-Methylvaleronitrile become clear not in catalogs, but in the quiet moments of everyday production. From the subtle shift in odor during final distillation, to the way batches behave in the reactor under different weather conditions, these observations shape the approach to its manufacture. Lessons learned from early runs feed directly into equipment upgrades and revised staff training, setting a living record of improvement. We stay in close contact with technical users and scale-up chemists, trading notes on specific challenges and helping troubleshoot unexpected hurdles. This builds relationships based on mutual problem-solving rather than just transactions.

    Skill in operations, rather than just technical sheets, keeps scrap rates low and brings about those high-yield production runs that make the difference. Each improvement in charging methods, pump calibration, or in-line filtration shows up directly in end product quality. Over time, these upgrades result in more reliable manufacturing, easier regulatory compliance, and—most important—a product that keeps real-world chemists coming back with new requests and feedback.

    Continuous Learning for New Applications

    As the range of industries using 4-Methylvaleronitrile continues to evolve, our technical team remains focused on trialing new downstream reactions, working with academic and industrial partners. Whether in pharmaceutical pilot programs, advanced plastics, or next-generation electronics components, our staff collects and shares the findings, integrating what works directly into process improvements for the next production cycle.

    Regular technical reviews—often sparked by customer inquiries into novel applications—lead to fresh adjustments in synthesis routes, waste management, and storage practices. By maintaining this direct feedback loop, every learning feeds back into product quality, continuity of supply, and compliance with the latest industry standards.

    The Road Ahead

    Manufacturing 4-Methylvaleronitrile is never just about hitting specifications. It’s the knowledge in the eyes of a line operator who knows when the reactor needs an adjustment, the patience of the QA staff tracking down a minor off-odor, and the pride in reporting another high-purity run. Long-term partnerships—both with suppliers and end-users—grow out of these everyday successes and setbacks. Our experience tells us that the value of a specialty chemical lies in these details, from the plant floor to the end application. Each batch traces a story of trial, improvement, and adaptation, written by the people who work the process every day.

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