Hexanenitrile

    • Product Name: Hexanenitrile
    • Alias: capronitrile
    • Einecs: 203-852-3
    • 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

    754648

    Cas Number 628-73-9
    Molecular Formula C6H11N
    Molar Mass 97.16 g/mol
    Iupac Name Hexanenitrile
    Synonyms Capronitrile, n-Hexyl cyanide, n-Caproic acid nitrile
    Appearance Colorless to pale yellow liquid
    Density 0.803 g/cm³
    Boiling Point 155-157 °C
    Melting Point -51 °C
    Solubility In Water Insoluble
    Flash Point 46 °C
    Refractive Index 1.415

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

    Packing & Storage
    Packing Hexanenitrile is packaged in a 500 mL amber glass bottle with a secure screw cap, labeled with hazard and safety information.
    Shipping Hexanenitrile is shipped in tightly sealed containers made of compatible materials, typically glass or high-density polyethylene, to prevent leaks and contamination. It should be stored and transported in a cool, dry, well-ventilated area, away from sources of ignition, oxidizers, and strong acids. Proper labeling, handling, and adherence to hazardous materials regulations are essential.
    Storage Hexanenitrile should be stored in a cool, dry, well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizing agents and acids. Keep the container tightly closed and properly labeled. Store away from direct sunlight and moisture. Use proper grounding and bonding if transferring the chemical to prevent static discharge, and always follow local regulations for flammable liquids.
    Application of Hexanenitrile

    Applications of Hexanenitrile in Industrial Manufacturing

    Hexanenitrile is a crucial intermediate utilized in multiple chemical industries. Its high purity and defined chemical characteristics support downstream manufacturers across specialty chemicals production, pharmaceutical synthesis, agrochemical formulation, and advanced polymer manufacturing. Our direct supply to end manufacturers ensures strict monitoring from raw material to customer application, aligning with international compliance and technical requirements.

    1. Pharmaceutical Intermediate Synthesis

    Hexanenitrile serves as a selective nitrile group contributor for the preparation of various aliphatic and heterocyclic pharmaceuticals. Many manufacturers use it in Grignard-type reactions or N-alkylation during active pharmaceutical ingredient (API) synthesis, particularly in the development of anticonvulsants and cardiovascular pharmaceuticals. Direct process integration requires high-purity grades to comply with ICH Q7 GMP for APIs. End users monitor trace impurities throughout multi-step synthetic routes, including hydrogenation or amidation, to minimize residual solvents in API compliance review.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • USP/NF Residual Solvents <467>
    • EU Commission Regulation (EC) No 1907/2006 (REACH)
    • EMEA/CHMP/QWP/450/03 Guideline

    Typical usage ratio

    • 0.3–1.2 mol hexanenitrile per mol target intermediate
    • Exact ratio adjusted based on batch yield, desired purity, and downstream conversion efficiency

    Downstream process integration

    • Introduced post-condensation reaction for carbon skeleton elongation
    • Participates in nitrile hydrogenation or hydrolysis steps to produce amine and acid precursors
    • Removed by rotary evaporation or distillation after reaction
    • Subjected to HPLC and GC-MS quantification during in-process QC

    Final product types

    • Lacosamide (anticonvulsant API)
    • Aliskiren (renin inhibitor)
    • Piperidine-based intermediates
    • Fatty acid amine derivatives

    2. Agrochemical Synthesis

    Hexanenitrile acts as a core building block in crop protection chemical synthesis, specifically in the manufacture of selected herbicides and insecticides. It supports pyridine and pyrazole ring construction, using controlled addition into multistage organic synthesis. Formulators require batch traceability and impurity profiling under ISO and FAO guidelines. The process often employs catalytic transformations where complete consumption of nitrile is verified before downstream extraction, minimizing residual content in formulation to meet regulatory MRLs (maximum residue limits).

    Industry compliance standards

    • ISO 9001:2015 for Agrochemical Production
    • FAO/WHO Specification for Plant Protection Products
    • EU Regulation 1107/2009 for Plant Protection Products
    • OECD Guidelines for Testing of Chemicals

    Typical usage ratio

    • 10–30% by mass of nitrile compound in synthesis batch
    • Optimization based on yield conversion and desired activity of final compound

    Downstream process integration

    • Supplied directly to halogenation or alkylation reactor stage
    • Participates in ring-forming reaction to generate pesticidal backbone
    • Integrated into in situ purification and solvent recovery system
    • Residual analysis via GC before formulation blending

    Final product types

    • Herbicidal active ingredients such as hexazinone derivatives
    • Pyrazole-based insecticides
    • Novel fungicide precursors
    • Off-patent pesticide intermediates

    3. Plasticizer and Polymer Additive Manufacture

    In the advanced polymer industry, hexanenitrile functions as a precursor for specialty plasticizers and as a functional group donor in copolymer modification. Producers incorporate it into nitrile copolymerizations or ring-opening reactions to adjust polymer glass transition temperatures and flexibility. To ensure product safety and environmental compliance, manufacturers align production with REACH and RoHS regulations, monitoring both raw nitrile levels and degradation products. Process controls target minimal free nitrile in final polymerized material, with adjustment based on intended end-use performance.

    Industry compliance standards

    • REACH Annex XVII (Regulation (EC) No 1907/2006) for polymer additives
    • RoHS Directive 2011/65/EU
    • ASTM D5630 Polymer Residue Analysis
    • ISO 9001 for Quality Management in Polymer Production

    Typical usage ratio

    • 1–5 wt% in masterbatch formulation; specific amount varies with desired plasticization effect and copolymer composition
    • Ratio decreased for high heat-resistance applications

    Downstream process integration

    • Fed into copolymerization reactor before monomer charging
    • Used in graft modification of elastomers or thermoplastics
    • Participates in reactive extrusion lines or blending operations
    • Monitored via FTIR and DSC analysis post-process

    Final product types

    • Flexible PVC plasticizers
    • Nitrile rubber copolymers (NBR)
    • Specialty polyamide modifiers
    • Ketone-based thermoplastic blends

    4. Flavor and Fragrance Ingredient Synthesis

    Hexanenitrile is utilized in the specialty synthesis of certain aliphatic ketones and aldehydes used as flavor and fragrance intermediates. Downstream producers employ it in tightly controlled catalytic hydrogenation or hydrolysis steps to form C6–C7 backbone aroma compounds. Manufacturing under IFRA and FCC guidelines requires rapid removal of excess nitrile and analytical confirmation to meet safety and trace threshold levels. Process validation includes batch-specific GC-MS and organoleptic evaluation for critical applications in fine fragrance and food flavors.

    Industry compliance standards

    • IFRA Standards for Fragrance Ingredient Purity
    • Food Chemicals Codex (FCC)
    • FEMA/GRAS Certification for Flavor Ingredients
    • 21 CFR 172.515 (US FDA regulations for flavor use)

    Typical usage ratio

    • Production-scale: 0.5–2.0 mol equivalents to starting alcohol/acid in batch
    • Lower ratios preferred for direct food flavor synthesis to control side-reaction products

    Downstream process integration

    • Added to hydrogenation reactor for reduction to hexylamine derivatives
    • Incorporated in stepwise hydrolysis to generate aldehyde/acid notes
    • Critical point sampling for GC-MS panel throughout reaction
    • End batch purified via fractional distillation

    Final product types

    • Hexylamine-based fragrance bases
    • 6-Carbon aliphatic aldehydes (e.g., hexanal used in green notes)
    • Flavoring agents for beverages and baked goods
    • Fine fragrance formulation intermediates

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    Certification & Compliance
    More Introduction

    Hexanenitrile: Purity, Performance, and the Realities of Modern Chemical Manufacturing

    Understanding Hexanenitrile from a Manufacturer’s Perspective

    Every raw material journey begins with the commitment to quality and a dependence on reliable science. Over decades in chemical manufacturing, we have learned which molecules offer true value to customers across industries. Hexanenitrile, with CAS number 628-73-9, frequently draws interest because of its unique chain structure and reactivity. Many know it as the precursor behind multiple pharmaceuticals and specialty chemicals, but its story begins in the plants where we refine and distill it to specification.

    Our process targets a consistent, high purity hexanenitrile product for synthesis applications. The challenge starts right at the selection of feedstock. There are impurities to control, and the production environment leaves no room for shortcuts when it comes to elimination of water, halides, and unsaturated byproducts. Customers expect a dependable chemical, whether it is used to build up new molecules or support long production campaigns. We see demand for liquid hexanenitrile at a purity exceeding 99%, but purity alone does not tell the complete story.

    Why Purity and Consistency Matter in Hexanenitrile

    Hexanenitrile may sound like a simple linear nitrile, but its practical value comes from what stays out as much as what goes in. Trace impurities – no matter how minor – affect downstream processing. In our experience working with polymer producers, even low levels of unsaturated impurities can harm specific catalyst cycles. For pharmaceutical synthesis, the stakes climb even higher, since regulatory authorities look beyond assay and profile each batch’s residual solvents and heavy metals.

    Each distillation column run offers its own lessons. Exceeding typical purity thresholds means careful control every step of the way, starting from solvent washes through vacuum distillation. We routinely invest in equipment upgrades that help improve the separation profile and give customers tighter impurity specs than general market supplies.

    Usage Patterns: What Hexanenitrile Offers to Industry

    Chemists recognize hexanenitrile as a flexible intermediate. Its six-carbon chain and nitrile function provide the backbone for transformations that shape other molecules. Many customers rely on it to produce amines, acids, or specialty heterocycles. Research labs value it for its manageable reactivity, and commercial operators appreciate its performance in controlled addition or substitution reactions.

    Polymer producers in particular use our hexanenitrile as a starting block for building monomers and specialty resins. The product’s boiling point and relative stability make it compatible with automated process streams where temperature and reaction time must be tightly managed. We often collaborate with formulators who want consistency across seasonal procurement cycles – one batch to the next must deliver the same conversions. We listen to their feedback and continuously fine-tune fractionation and storage techniques to keep the product performing as expected.

    The Difference Between Hexanenitrile and Similar Chemicals

    Hexanenitrile has to deliver more than just its nitrile group. Chemically, it separates itself from shorter chain analogs such as butyronitrile or valeronitrile by its stability and melting/boiling point profile. Its lighter cousins often introduce handling headaches due to volatility or a tendency to generate byproducts in condensation reactions. Extended carbon chains, in contrast, boost solubility in some solvent systems, and that opens up opportunities for specialty synthesis that cannot be matched by single isomer approaches.

    From a process perspective, manufacturing hexanenitrile at commercial scale introduces distinct demands that differ from those for smaller or bulkier nitriles. For example, the margin for error during distillation narrows as thermal stability issues arise. Our plant engineers work closely with research chemists to track not just the ‘final number’ in a COA but the authentic batch behavior in each shipment. Their insights prevent the very problems that slow down innovation at the customer’s site.

    Hexanenitrile Quality Controls: Going Beyond Standard Specs

    Our laboratories enforce a strict incoming and outgoing analysis protocol, using gas chromatography and verified retention times for every production lot. We catch off-spec batches before they go out the door, reducing the risks of rework or reverse logistics downstream. Where customers have specific needs – such as absence of heavier homologues or non-detectable levels of halides beyond industry thresholds – our quality control team can adapt the test profiles. This extra scrutiny often comes as a result of open conversations with our biggest industrial customers, who share data from their own process analytics.

    We also pay attention to the subtler details – like the impact of trace water on nucleophilic reactions, or the role of micro-contaminants when hexanenitrile is used in continuous-flow chemistry. These considerations do not appear on every supplier’s datasheet, but they matter for robust process design and reproducibility.

    Health and Environmental Factors in Production and Use

    Industrial chemicals demand respect in handling and transport. Our teams work under local and international health and safety rules. Operators suit up with proven PPE. Shipping and storage containers are monitored, double-sealed, and checked for compliance with accepted guidelines for hazardous materials. Overexposure during manufacturing could sensitize or harm airways; we invest in controls and ventilation checks to bring personal exposure below stated limits.

    Production sites running hexanenitrile processes install closed systems and invest in continuous training. Anti-static measures and emergency plans sit alongside the busy production lines. While emissions controls have progressed, the broader environmental story depends on every link in the supply chain playing its part, from minimization of vent losses to trend analysis on waste water. Our own investment over the years in scrubbers and catalyst regenerators comes from a practical understanding that even modest leaks impact community relationships and regulatory results.

    How Logistics and Supply Shape the User Experience

    No two buyer profiles for hexanenitrile are identical. One research group in fine chemicals might need liters at a time in glass, with paperwork tailored for regulatory disclosure. A plant preparing new intermediates might draw from IBCs or drums, worrying about batch numbers and reliable shelf life more than small-scale purity. Our transport and warehousing partners match this diversity, using geo-tracked logistics and temperature-controlled environments when needed.

    Every delivery solves a unique logistics puzzle. In the past, we faced bottlenecks with packaging availability during high demand cycles. Our mitigation included alternate container formats and tighter production scheduling. This attention to the details of timing and labeling makes a real difference when customers calibrate batch production runs around raw material lead times. In our experience, timely communication about inventory and ETAs supports long-term trust more than automated portal updates.

    The Evolving Hexanenitrile Market: Change Driven by End-User Innovation

    Patterns in demand reflect new end-uses as much as traditional markets. As certain chemistries shift toward greener, lower emission technologies, product specifications shift. We engage with formulators who now factor in lifecycle assessments, examining not simply the chemical purity but upstream raw material sourcing. In some cases, we receive queries about the origin of hydrocarbon sources, asking for certifications that previous generations never mentioned.

    On the innovation front, startups and university groups trial hexanenitrile derivatives in pilot reactors, looking for new ways to modify surfaces or tweak polymer characteristics. Their feedback sometimes leads to microadjustments in our storage guidelines or temperature recommendations. We remain open to these evolving requirements, knowing that our legacy depends on collaboration as much as technical execution.

    Addressing Industry Challenges: What Still Needs Attention

    The path to a more transparent and reliable supply of hexanenitrile meets familiar challenges. Feedstock volatility, shifting regulations, and unpredictable demand cycles can test even the most resilient operation. Over the years, we have lived through market shortages triggered by refinery outages and regional logistics squeezes. In each case, it pays to maintain close ties to supplier networks and explore local substitution strategies for feedstock sourcing.

    Processing technology also moves forward in fits and starts. Newer, more efficient catalysts or energy-saving distillation setups look promising, but switching from old to new methods often introduces new risk. We run rigorous pilot trials before scaling up a new purification method. This minimizes disruptions and avoids surprises for long-term customers who structure their own production schedules around the reliability of our supply.

    The Role of Feedback and Continuous Dialogue in Product Improvement

    Customers offer the most valuable feedback. We receive real-world results from labs that have used our hexanenitrile in multistep syntheses and notice even minor changes in purity or color. Their vigilance makes us better. For example, an alerted uptick in trace aldehyde byproducts during a batch flagged an upstream process change that we quickly addressed. Open channels allow for shared problem-solving. These partnerships keep quality high and ensure new solutions get tested in actual manufacturing environments, not just in research or marketing documents.

    Internally, we maintain channels among plant managers, technical teams, and field service reps. Insights travel quickly, which means tweaks on the shop floor get real-world validation long before formal protocol change. This down-to-earth approach reduces paperwork bottlenecks and encourages a culture where improvements can be made in days, not quarters.

    Special Considerations for Hexanenitrile Storage and Shipping

    To keep hexanenitrile within desired specs, storage needs careful temperature controls, shielded areas, and reliable containment. Direct sunlight, moisture, and accidental mixing are all risks. We invest in lining drums and containers with compatible materials to avoid leaching or reaction, even during long transits. Labels and documentation travel with each shipment, with QR-coded records that our customers appreciate for their transparency and audit readiness.

    On the regulatory side, different countries treat liquid nitriles under varying rulesets, so compliance teams work ahead of each shipment. Border clearances and customs paperwork can slow down otherwise fast-moving logistics chains, which makes pre-planning a necessity instead of an afterthought. Over time, we built up a routine of pre-approval with major hubs to minimize delays, especially during global disruptions or peak order periods.

    How Our Manufacturing Process Delivers Value Over Alternatives

    Our direct manufacturing model avoids typical pitfalls of third-party sourcing. It lets us invest in plant upgrades when a new process shows a safer or more profitable outcome. The benefit for customers comes through in faster troubleshooting. Instead of relaying concerns through several layers, we mobilize engineers and technical teams who know both the process chemistry and the operational demands of each customer’s sector.

    Compared to blends or multi-sourced supplies, our in-house production makes for reliable product traceability. Batch numbers correspond to actual production logs, not order cycles. Customers in regulated sectors, especially pharmaceuticals, draw confidence from this continuity, since they must prove historical consistency to inspection teams. Over time, this foundation of transparency builds trust and repeatedly earns us return business.

    Future Trends in Hexanenitrile Demand

    Looking ahead, several factors point toward increased demand for high-purity organonitriles like hexanenitrile. As more chemical companies pivot toward performance chemicals and niche polymers, the search for specific, reliable building blocks only intensifies. Pharmaceuticals and agrochemicals will likely continue as demand drivers, but newer applications in specialty surfactants and advanced coatings point toward diversified usage.

    We track these trends through direct dialogues at industry conferences and research partnerships with universities. Their work on greener synthetic routes often relies on materials we supply, and their early feedback on process needs helps us identify where our capabilities must grow. In our experience, collaborating at the earliest stages of product development reduces frustration downstream for both parties.

    Continuous Improvement and the Manufacturer’s Responsibility

    Sustainable practices in chemical manufacturing start from the ground up. Over the years, we have changed our approach to waste, emission controls, and recycling because real risks follow from old habits. We retrofit reactors to reduce fugitive vapor loss, and we commission independent audits to test discharge and compliance practices beyond what the law requires. This long-term thinking has improved community relations and reduced compliance incidents.

    The manufacturer’s job does not stop with shipment. Our technical support teams provide ongoing support, visiting customer plants to review how hexanenitrile fits within broader process flows. It’s a hands-on approach, not just a hotline or website. These site visits uncovered small changes, such as tweaks in addition rates or in-line purification, that cut waste for multiple clients this year.

    Conclusion: Hexanenitrile’s Place in Modern Industry

    Years spent manufacturing hexanenitrile taught us that every successful supply story starts with more than a technical spec. It grows from trust, transparency, and a willingness to adapt. Reliable supply, rigorous purity, and responsive communication define our philosophy, because at any production scale – be it liters or tons – it all comes down to predictable results. Being a manufacturer brings responsibility: to improve processes, listen to feedback, protect both people and the environment, and push for technological advances that benefit both customer and producer. That approach made hexanenitrile a staple for diverse partners, and it will keep shaping its story for years to come.

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