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HS Code |
178309 |
| Chemical Name | Methyl N-Hexanoate |
| Cas Number | 106-70-7 |
| Molecular Formula | C7H14O2 |
| Molecular Weight | 130.18 g/mol |
| Appearance | Colorless liquid |
| Odor | Fruity odor |
| Boiling Point | 151-153°C |
| Melting Point | -80°C |
| Density | 0.872 g/cm3 at 20°C |
| Refractive Index | 1.409 at 20°C |
| Flash Point | 46°C (closed cup) |
| Solubility In Water | Insoluble |
| Vapor Pressure | 3 mmHg at 25°C |
As an accredited Methyl N-Hexanoate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250 mL amber glass bottle with tamper-evident cap, labeled with chemical name, formula, hazard symbols, and handling instructions. |
| Shipping | Methyl N-Hexanoate should be shipped in tightly sealed containers, protected from physical damage. Store and transport in a cool, well-ventilated area, away from sources of ignition and incompatible substances. Ensure labeling complies with local, national, and international regulations. Handle with care, using appropriate personal protective equipment to avoid spills and exposure. |
| Storage | Methyl N-hexanoate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and strong oxidizing agents. Keep it away from incompatible materials and direct sunlight. Store at room temperature and ensure containers are properly labeled. Use proper chemical storage protocols to avoid accidental release or exposure. |
Applications of Methyl N-Hexanoate in Industrial ManufacturingMethyl N-Hexanoate serves specialized roles in several industrial manufacturing sectors. As a chemical manufacturer, we supply this ester to downstream partners who require precise purity, consistent composition, and documented regulatory support. The following sections detail genuine industrial uses, compliance frameworks, functional dosage, integration endpoints in production, and real finished goods in each application field. 1. Flavors and Fragrances SynthesisMajor flavor compound producers incorporate this ester as a key intermediate for fruity, green, and herbaceous profiles. Its clean organoleptic properties and reactive ester group make it valuable for compounding complex aromas, particularly where low molecular weight esters are critical for top-note volatility in perfumery and flavor extracts. Its application spans synthesis of compounded food flavors, beverages, and perfumery bases where defined purity and traceability support product registration in export markets. Industry compliance standards
Typical usage ratio
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2. Pharmaceutical Intermediate for API SynthesisActive pharmaceutical ingredient (API) producers utilize this chemical as a building block for esterification reactions, enabling preparation of prodrugs, esterified small molecules, and reaction intermediates where C6 chain esters are specified. Tight batch-to-batch consistency and impurity profiles support its use in FDA and EMA-audited plants where traceability and specification adherence underpin API regulatory filings, especially for generic drug manufacturing. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Lubricant Additive ManufacturingSynthetic fluid blenders in high-performance lubricant segments use this ester to enhance low-temperature flow and volatility profiles. The controlled volatility and moderate chain length support its function in cold flow improvement packages and biodegradable lubricant bases. Consistent quality and absence of trace contaminants are essential due to downstream impacts on lubrication system stability and machinery reliability. Environmental compliance forms a significant part of product registration for end-products in sensitive use areas. Industry compliance standards
Typical usage ratio
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4. Agrochemical Solvent and Carrier FormulationFormulators in the agrochemical sector employ methyl hexanoate as a specialty solvent and carrier for actives in emulsifiable concentrate, suspension concentrate, and capsule slurry pesticides. Its medium chain structure delivers desirable solubility for hydrophobic actives while enabling phase stability and rapid volatilization on plant surfaces. Stringent regulatory controls require strict documentation of origin, absence of prohibited impurities, and stability in multi-component pesticide blends. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Specialty Polymer and Resin PrecursorProducers of specialty polyesters, alkyds, or modified polyolefins incorporate this chemical as a monoester reactant to tailor flexibility, gloss, and surface energy properties in finished polymers. Its C6 aliphatic group acts as a chain segment that influences final coating flexibility and substrate wetting in high-spec paints or adhesives. Downstream QC documentation includes residual monomer analysis and traceability to original esterification batches for quality assurance in regulated end-uses. Industry compliance standards
Typical usage ratio
Downstream process integration
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Anyone walking into our distillation hall will catch the unmistakable scent of esters in the air—bright, with a sweet, green undertone. Among those, Methyl N-Hexanoate stands out. It’s a compound we’ve worked with for years, and over that time, we’ve learned the details that set our product apart from lower-purity batches and knockoff blends. Producing it calls for diligent control over each reaction stage, not just for purity, but for the integrity that industries expect when performance matters.
Our process starts long before you’ll see the finished liquid. We monitor pressure, temperature, feeding rates, and reflux on every run. Our teams know each phase by sight and odor as much as by probe and chromatogram, and that eye for what’s real matters for customers who mix flavors, formulate lubricants, or research surfactant systems. Even with all the lab equipment doing checks, we trust the experience in the room—subtle changes tell us if yesterday’s controls are giving today’s results.
If you’re formulating for food esters, paints, or fine chemicals, Methyl N-Hexanoate usually comes up for its combination of volatility, solvency power, and a sweet, apple-green scent signature. We reach a minimum purity threshold of 99%, with low acid and water content. That sounds simple enough, but we know that even a fraction of a percent of heavier hexanoic acid or dimers can bring unwanted notes to food, off-tastes in flavor blends, or yellowing in coatings.
Our teams use fractional distillation to keep byproducts tight. The main impurity concerns sit with unreacted acids or alcohols—problems for customers making food-grade aromas, where a higher acid number can scrub fruit notes or lead to unwanted side products in further synthesis. Our GC trace analysis can show you the profile at parts-per-million; we share that openly, because if the purity measures up here, it will hold up for your analytical staff as well.
You can spot Methyl N-Hexanoate in a surprising mix of products once you know what to look for. Perfumers often use it as a green, fruity note for apple or pineapple. Food technologists blend it into baked goods and confectioneries, where it helps flavors pop with freshness. Paint companies pull it for specialty solvents because of its balance of evaporation rate and solvency, and occasionally, researchers request it for test reactions where the methyl ester’s reactivity fits their needs.
Large flavor houses may order drums each month, leaning on consistent quality for blended aromas that avoid batch-to-batch drift. Smaller batches feed specialty lubricants, where even small traces of moisture can ruin shelf life or storage stability. The top comment we hear from flavorists and paint chemists? “No surprises this time.” They’ve dealt with off-smells, yellowish tints, or acids that didn’t show up on a quick test but revealed themselves once in a formula. We’ve lost older customers through price wars, but most come back—because the headaches of unpredictable minor impurities cost more than a few cents per kilo saved.
Methyl N-Hexanoate carves out a specific niche compared to its cousins. Unlike Ethyl Hexanoate, for instance, which leans heavy into pineapple and tropical notes, the methyl ester delivers a lighter, crisper apple-green aroma. The volatility profile makes it a better fit for flavor work where you want pop without lingering heaviness; the small molecular difference shows up in every aroma test I’ve run side by side.
On the solvent side, Methyl N-Hexanoate evaporates at a rate that works for applications needing clean, residue-light removal—think high-gloss coatings or ink formulation. Isopropyl hexanoate or butyl esters tend to hang around longer and can leave more residual taste or solvent aftertint. This matters for resin work or printing where drying schedules can make or break throughput. Customers in fine fragrance creation and flavor matching stick with methyl for its precise character and light finish.
We’ve faced every kind of inquiry as manufacturing tightened in the last decade—calls to cut costs, replace solvents, or push out shipments faster. There have been times we could have trimmed a step or traded purity for speed. Each shortcut, though, stacks up trouble for the next in line: off odors, filtration headaches, shelf life worries that don’t show up until long after a batch leaves our dock.
This is why we built our process around narrow specifications. The laboratory doesn't just check the last drum or tote in a run—analysis is ongoing, not just a snapshot. Fresh batches run through GC-FID, water content titrators, and acid number tests before leaving our site. Anything out of range gets rerun or diverted, not blended out and quietly shipped along.
Anyone supplying chemicals at industrial scale learns there’s no such thing as a “simple” ester. One day, a confectionery customer called us after a competitor’s product ruined a whole line of wrapped fruit chews. The issue traced back to a spike in an off-smell caused by higher acid impurities—maybe the batch sat exposed too long, maybe a distillation column fouled. Either way, small cut corners meant costly rework, a frustrated production manager, and a scramble for crisis management.
Our batch history records and quality holds let us trace problems down to specific drums and reactors. After sending out a shipment with a slight haze, our team caught the issue the moment the drums hit storage. Campaigning to “fix later” would have let the problem multiply, but containment kept us in good standing. If the issue ever shows up for a customer, our QC logs make backtracking possible—down to exact instruments and operator shifts—rather than hiding behind generic claims or saying “that batch must have looked fine when it shipped.”
Over years in this business, we watched the regulatory landscape shift. Now, each molecule carries a paper trail from raw material receipt through every tank and filter. Food, pharma, and industrial users all want transparency and tight traceability. Methyl N-Hexanoate, though simple on paper, introduces more risk if documentation lacks detail. Even small ingredients in flavor or fragrance need a full chain of custody, especially where allergen and contamination risks aren’t always obvious.
Establishing clear procedures and electronic batch records isn’t just checking a box—it lets us act fast when a mislabeling or QC outlier crops up. In the last quarter alone, we updated our system for online tracking, giving customers date-stamped access to COA and compliance data rather than digging through stacks of paper. Auditors walk the floor and spot test our documentation. This extra work saves us from days of frantic recovery down the road if something slips in shipping or a test falls outside norms.
I remember meeting customers who said, “Your specs seem overkill” as they waved a reference to another supplier’s sheet—one that wrote 98.5% but left out side products. Out in pilot plants, that half a percent isn't just a number. For every missed decimal, you risk batch failures or shelf life curtailment.
The step from lab glassware to full-scale column brings in air, water, metal traces, and the small faults that lab catalogs don’t flag. We sample from the bottom, top, and middle of our reactors because product from different take-off points can show issues missed by a single representative vial. Scaling up means less room for theoretical purity and more investment in cleaning, maintenance, and solvent management. A good methyl hexanoate supply line leans heavy on trained operators—not just automation—because a real nose or eye catches what the best sensor can miss.
You’ll hear sustainability come up more than ever in industry briefs. With Methyl N-Hexanoate, controlling waste streams relies on both process refinement and worker training. Using in-process testing rather than waiting for end-of-line results lets us shift conditions fast, trimming fractions of a percent off waste without nudging the finished spec closer to borderline. Any off-spec material gets diverted into secondary cleans or downgraded, avoiding landfill and cutting solvent burden.
We recycle process solvents and consolidate offcuts before sale to secondary markets. Cleaner runs means less energy spent on rework, less cleanup, and less spent on replacement feedstocks. Even simple tweaks—smaller washes between runs, incremental temperature changes—drive down chemical usage over hundreds of tons each year. Everyone on the floor in our plant tracks scrap and rework loads, knowing that cutting corners to “save” costs more over the long haul.
Many of our customers start with a trial liter or a pilot pail, running performance checks in their own application before signing on for bulk. We know exactly how a sample is drawn and documented; production scale matches the small batch spec in everything except quantity. The same goes for custom specs—be it ultra-low water for electronic applications, or tailored volatility for specialty fragrance builds. Years of working closely with R&D labs taught us to listen as much as explain; customers share what worked or failed, and that informs our future production cycles.
We don’t ship “what we have”—we talk to the chemist or engineer who will receive, test, and blend each batch. Our technical support doesn’t just answer questions off a sheet—it’s shaped by actual production knowledge. If you ask how one impurity will impact a citrus concentrate, or whether our ester stands up in a high-shear blending system, our answers draw directly from onsite QC, pilot plant scale-up, and practical process tweaks born out of real-life bottlenecks.
Volatility in global raw material markets trickles straight down to the production floor. A spike in natural alcohol prices, lower harvests for oilseed feedstocks, or new tariffs show up as cost pressure—and not always with much warning. We’ve built flexibility into our contracts, knowing that fixed pricing may hold for a month or two, but supply crunches force smart adaptation. Supply chain teams talk daily, sourcing alternatives or securing backup stock to buffer against uncertainty. For Methyl N-Hexanoate, one hiccup in raw methyl alcohol can ripple through the whole value chain.
As plant operators, adapting recipes or alternate sourcing means recalibrating processes, adjusting distillation cutpoints, and, in tight years, accepting smaller, more frequent runs to steady outflow. We keep customers posted on shifts early, getting feedback about how any supply adjustments may affect their timing or performance needs. Meeting timelines without surprises and keeping communication open earns us trust, especially in volatile markets.
Every few years, customer priorities shift. Right now, demands for “naturally derived” molecules are growing. Methyl N-Hexanoate can theoretically be made from natural or synthetic sources, though fully bio-based supply often sees steeper price tags and a little less consistency batch-to-batch. “Clean label” trends mean extra scrutiny on synthesis route, co-product handling, and residual solvent loads. We’ve piloted both approaches, sharing analysis findings honestly—even when a natural route comes with a higher trace load or polish demand.
Customers chasing certifiable clean-label goods often find the jump from synthetic to fully natural comes with trade-offs in shelf life or cost. We guide conversations toward what best fits their product—sometimes a fully natural-sourced ester is essential, sometimes the synthetic wins on purity, consistency, and value. Both options pass strict food and fragrance toxicology screens. For those looking for detailed provenance, we can track raw material documentation back to the mill, verifying source claims for audit purposes.
Inside our plant, we treat every run of Methyl N-Hexanoate as both a technical challenge and a benchmark for what we do next. Even after years in operation, process tweaks never stop. Last year, our team rebuilt column trays to squeeze more separation from each feed. A mid-year process audit led to reallocating operator shift routines, which avoided uneven batches and trimmed downtime between campaigns. Suggestions from outside labs and returning customers informed changes in utility scheduling, driving both cost savings and more reliable batch outputs.
Honest customer feedback shapes our future improvements; one bakery customer flagged a drift in perceived aroma after a major feedstock change. Instead of dismissing it as subjective, we ran parallel GC-O tests and traced the minor shift back to a co-product side stream. Adjustments brought the profile back into line for all applications—not just bakery. Continuous improvement is more than an initiative; it’s the way we stay viable and valuable in fast-moving marketplaces.
Every liter of Methyl N-Hexanoate rolling out of our plant reflects hundreds of decisions, ongoing collaboration with users, and a refusal to accept “good enough.” Our staff bring years of hands-on expertise; some started decades ago, and their mentorship carries into each operator’s approach today. Working as both supplier and technical partner, we focus on solving customer problems with proven chemistry, shared data, and a commitment to clear, grounded support.
Whether you’re scaling up a new flavor release or qualifying feedstock for a fine chemical process, our Methyl N-Hexanoate supports that journey with the consistency, technical detail, and transparency earned by real producers—not faceless traders. We’re here for every blend, every test, every challenge, producing a product we believe stands tall in a crowded, competitive market.