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2-Methyl-3-Hexanol

    • Product Name 2-Methyl-3-Hexanol
    • Alias sec-Heptyl alcohol
    • Einecs 226-324-4
    • 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

    528086

    Iupac Name 2-Methyl-3-hexanol
    Molecular Formula C7H16O
    Molar Mass 116.20 g/mol
    Appearance Colorless liquid
    Boiling Point 145-148 °C
    Melting Point -70 °C (approximate)
    Density 0.819 g/cm³
    Refractive Index 1.421 (at 20 °C)
    Solubility In Water Slightly soluble
    Flash Point 52 °C
    Cas Number 623-37-0

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

    Packing & Storage
    Packing Amber glass bottle containing 100 mL of 2-Methyl-3-Hexanol, securely sealed with a screw cap and labeled for laboratory use.
    Shipping **2-Methyl-3-Hexanol** is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. During transit, it should be protected from heat, ignition sources, and direct sunlight. The packaging complies with regulations for handling flammable and potentially harmful substances. Proper labeling ensures safe identification and handling throughout shipping.
    Storage 2-Methyl-3-hexanol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Keep the storage area clearly labeled and dedicated to chemicals. Protect from direct sunlight and moisture, and ensure proper spill containment measures are in place.
    Application of 2-Methyl-3-Hexanol

    Applications of 2-Methyl-3-Hexanol in Industrial Manufacturing

    As an established producer of specialty alcohols, we supply 2-Methyl-3-Hexanol to multiple advanced manufacturing segments worldwide. This mid-chain branched alcohol supports end users in sectors requiring discrete performance features in synthesis, physical properties, and compliance. Below, we focus on its commercially confirmed applications, illustrating how processors utilize our product in compliant, integrated downstream operations.

    1. Plasticizer Intermediate for Specialty Esters

    Major plasticizer manufacturers utilize 2-Methyl-3-Hexanol as an alcohol component for synthesizing branched alkyl esters, delivering precise plasticizing performance for PVC and engineering polymers. Producers select this molecule for its branched structure, which enhances ester cold flexibility and migration resistance in demanding environments. Integration with established esterification processes, alongside stringent feedstock controls, supports regulatory and sustainability requirements for polymer-modified end uses.

    Industry compliance standards

    • EU REACH Regulation (EC) No 1907/2006
    • U.S. TSCA (Toxic Substances Control Act) Inventory
    • China GB/T 15593 for plasticizer materials
    • EN 71-3 Toy Safety Standard (for compliant PVC applications)

    Typical usage ratio

    • Alcohol moiety feeds 25-45 mole% of total reactants for monoester or diester formulations. Process engineers fine-tune proportion based on finished ester performance in elastomer or flexible PVC compounding.

    Downstream process integration

    • Batch or continuous esterification with phthalic, adipic, or trimellitic acids under controlled temperature and vacuum. Alcohol added directly to reactor as controlled feedstock, followed by purification via distillation, acid scavenging, and pre-blending for polymer compounding.

    Final product types

    • High-performance plasticizers for automotive wire coatings
    • Cable sheath and film plasticizers with enhanced flexibility
    • Modified thermoplastic elastomers for industrial and consumer goods
    • Calendered flexible PVC for flooring and wall coverings

    2. Specialty Flavors and Fragrance Building Block

    Fragrance and flavor houses leverage the alcohol’s mid-chain branched structure for manufacturing specialty esters and synthetic aroma intermediates. Its usage as a precursor in fruity, herbal, or green-note esters underpins signature profiles for fine fragrances, personal care, and FCM (food contact material)-approved packaging. Strict QC and traceability from our facility support downstream compliance for both IFRA-certified and FDA-regulated applications, emphasizing residue management and purity.

    Industry compliance standards

    • IFRA Standards for Fragrance Ingredients (International Fragrance Association)
    • European Regulation (EC) No 1223/2009 on Cosmetic Products
    • U.S. FDA 21 CFR 172.515 – Synthetic Flavoring Substances
    • ISO 9235:2013 for definition and purity

    Typical usage ratio

    • Addition level ranges from 0.01% to 0.2% in concentrate for fragrance compounding; final ester derivatives incorporated at 0.1–1% in ready-to-use perfume or flavoring, dependent on desired impact and regulatory limits per application matrix.

    Downstream process integration

    • Reacts with natural or synthetic acids via esterification under mild conditions, followed by fine distillation and dilution. Integration in automated compounding systems for fragrance and flavor bases, respecting batch traceability SOPs.

    Final product types

    • Fine fragrance bases for perfumes and personal care
    • Flavoring agents for beverage and confectionery flavor systems
    • Scented household cleaning compositions
    • Food contact packaging with organoleptic neutrality

    3. Paints, Coatings, and High-Performance Solvents

    Formulators in the coating sector employ 2-Methyl-3-Hexanol to manufacture high-boiling esters and as a co-solvent for industrial paints, varnishes, and specialty ink vehicles. Its branched structure aids in balancing volatility, enhancing flow and film leveling, and supporting solvent retention in slow-drying or high-solid formulations. Material supplied under tight QC supports conformity in automotive, architectural and industrial maintenance coating systems.

    Industry compliance standards

    • EU CLP Regulation (EC) No 1272/2008 (classification and labeling)
    • OECD Guideline 301 for biodegradability assessment
    • U.S. EPA VOC regulations (40 CFR Part 59)
    • ISO 12944 for anticorrosive industrial coatings

    Typical usage ratio

    • Used at 1–7% by weight in industrial paint and lacquer recipes; higher fractions for slow-evaporation or specialty ink vehicles, adjusted per substrate porosity and environmental compliance targets.

    Downstream process integration

    • Charged as a co-solvent or precursor for esterification reactions within solvent blending lines; incorporated prior to pigment dispersion and resin solution, using automated dosing to avoid off-ratios and ensure film property reproducibility.

    Final product types

    • Automotive refinishing paints and basecoats
    • Architectural varnishes and clear coats
    • Industrial metal and plastic primers
    • Specialty printing inks for packaging

    4. Lube Oil Additive Synthesis

    Manufacturers of high-performance lubricants and functional additives utilize this alcohol to construct branched-ester lubricity improvers and friction modifiers. Its branched carbon backbone helps esters withstand oxidation, delivering thermal and shear stability for extended-drain lubricants used in automotive and industrial gearboxes. Our systematic QC and batch documentation meet global lube standards, supporting blenders targeting premium base oil compatibility and environmentally compliant offers.

    Industry compliance standards

    • API SN/CF engine oil standards
    • ACEA (European Automobile Manufacturers’ Association) sequences
    • OECD 301B biodegradability for ester content
    • ISO 9001:2015 certified QC and traceability relevant to additive manufacturing

    Typical usage ratio

    • Branched esters based on the alcohol dosed at 0.2–3% active content in finished lube oil or ATF (automatic transmission fluid); ratio chosen by end use temperature range and friction coefficient requirements.

    Downstream process integration

    • Undergoes direct esterification with carboxylic acids in continuous or semi-batch reactors, followed by integration into lube oil additive packages and final oil blending, with in-line QC monitoring for color, acid value, and purity.

    Final product types

    • High-performance gear and hydraulic oils
    • Automatic transmission fluids (ATF)
    • Engine oil packages for passenger cars and heavy-duty vehicles
    • Biodegradable synthetic lubricants for industrial equipment
    Free Quote

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    Certification & Compliance
    More Introduction

    2-Methyl-3-Hexanol: Manufacturing Perspective and Industrial Value

    Meeting Real-World Industry Demands with 2-Methyl-3-Hexanol

    Production work brings us up close with the requirements of modern chemical supply chains. 2-Methyl-3-Hexanol has stood out in the lineup of fine alcohols because of how it solves industrial formulation challenges. When you’ve spent years answering technical calls from plant managers and lab supervisors, the subtle details behind this compound become far more than a ledger entry or catalog item. Its balanced structure, with a methyl group attached at the 2-position on hexanol’s backbone, sets up a unique physical character that finds reliable use beyond basic solvent roles.

    Not every alcohol in the factory or the flask will behave with the same combination of volatility, solvency, and manageable hazard profile. Many projects require an agent that lifts solubility barriers without the flashpoint risk of shorter chain alcohols. Our experience running batches and flushing filters has made it clear: 2-Methyl-3-Hexanol brings a rare balance of chemical activity and physical control, so it moves quickly into both semi-bulk applications and custom syntheses. The product leaves our reactors as a clear, mobile liquid with a faint, characteristic alcohol odor. Most partners in coatings and specialty resins point to this neutral scent and low water content as practical benefits during blending or clean-up.

    Consistent Quality: Why Manufacturing Method Matters

    With 2-Methyl-3-Hexanol, predictability counts just as much as purity. Our plants rely on hydrogenation techniques that keep side-reactions in check. The process tweaks—pressure profiles, temperature holds, and catalyst wash-downs—separate a facility capable of rolling out drum after drum at 99% purity from operations forced to blend away nonconformities. Decades of on-site troubleshooting have taught us to watch for exotherms and off-odors that signal even tiny yield issues at the early distillation stages. By keeping every batch in specification, we support both routine manufacturing and those urgent custom orders that land after hours.

    Our product moves through the supply chain as a technical grade alcohol, not as a food or pharmaceutical additive. We verify properties like refractive index and specific gravity with in-house methods, and run regular impurity checks using GC and titration. These aren’t just tick-box tests; they reflect real lessons learned from scaling bench recipes up to bulk production, where small mistakes cost big on turnaround times and filter losses. Plant teams appreciate the lack of troublesome byproducts such as secondary alcohols or branched isomers—by keeping the impurity profile tight, we can meet the request for clean downstream reactions in key segments.

    Practical Applications Across Industries

    Sitting at the intersection of chemical functionality and physical stability, 2-Methyl-3-Hexanol gets most of its attention in the synthesis of specialty esters and plasticizers. Regular requests come from resin manufacturers searching for the right viscosity-profile or weathering resistance in automotive or architectural coatings. Blending operations in custom adhesives also value how this alcohol acts as a carrier for reactive groups—without the unwanted volatility of lower-boiling analogues. When dialing in evaporation rates or setting work time windows for two-component systems, the difference between a straight-chain and a methyl-branched alcohol can spell the gap between success and failure in end-user hands.

    Within fragrance chemistry, limited technical applications use 2-Methyl-3-Hexanol as a background note builder when formulating complex bases. Flavor and fragrance blenders prize how the methyl substituent shapes a different top note and heavier base compared to its straight-chain relatives. The molecule slots into processes where a light, fresh odor is not required, and where a subtle, earthy note is called for. While only a narrow segment of the market uses the material in aroma industries, those who do, rely on consistently produced, low-odor batches.

    Lubricant additive blenders and specialty oil formulators seek out 2-Methyl-3-Hexanol because its molecular profile promotes compatibility with both mineral and synthetic bases. Product development teams turn to us with requests for data showing miscibility and long-term color stability under heat aging. In our experience, this molecule’s branched structure brings anti-wear and anti-corrosion qualities that straight-chain hexanols or shorter alcohols can’t always guarantee. Years of direct feedback confirm that incorporating this compound into custom formulations can provide performance advantages in cutting oils and hydraulic fluids.

    The Engineering Side of Production: What Sets It Apart

    Experience in plant operation shapes the way we talk about product differences. Most competitors still use a general-purpose distillation line to separate multiple C6 and C7 alcohols for economy of scale, which often introduces run-to-run inconsistency. As a manufacturer, our team has overhauled column staging and condenser control to minimize cross-contamination between hexanol isomers. This isn’t a change visible to most buyers on a specification sheet, but end-users tell us that process refinements matter when producing high-value resins or performance lubricants.

    Staying responsive means running small trial batches for clients who need to tighten color, acid value, or water levels. In many factories, an impure feedstock forces operators to slow production rates or increase additive loads—our team’s sharp process controls help avoid these downstream problems. Over time, our feedback loops between QC, operations, and application support allow for fast tweaks to batch profiles, saving partners from reworking expensive finished materials. Where some suppliers may see alcohols as bulk commodities, we judge output against previous years’ field results. If too many redrums come back flagged for haze or odor, we don’t push product out the door; we fix the root process variable. This sense of ownership turns minor batch adjustments into major value for those using the product at scale.

    Product Handling Considerations—Insights from the Factory Floor

    No one benefits from surprises in receiving or storage, so consistent performance means sweating the details most commodity product overviews ignore. 2-Methyl-3-Hexanol holds up well in common carbon steel or HDPE drums; our logistics teams monitor for water pickup during long-term storage, so quality doesn’t fade between manufacturing and use. Regular liquid sampling and haze testing during transit have caught minor shifts in clarity under high humidity transport—these lessons shape our drum-sealing and headspace purging methods.

    On the shipping dock, product viscosity lets bulk handlers pump quickly even in cooler months. Volatility lands in a manageable space, so warehouse teams focus on normal ventilation without breakthrough odors. Every once in a while, a new blending line will raise questions about compatibility; past plant-based tests have shown 2-Methyl-3-Hexanol works alongside common alkyd modifiers, epoxy hardeners, and plasticizer stocks. Confident answers come easier when they’re grounded in our own practical lab and shipping data rather than just technical bulletins.

    Environmental Responsibility and Worker Health—A Manufacturer’s View

    Modern production means never ignoring health and environmental footprints. On-site, our team handles 2-Methyl-3-Hexanol in closed-loop transfers using pump and filter skids chosen for zero direct exposure. Over the years, we’ve upgraded vapor recovery over tanks and invested in regular air monitoring across blend lines to keep air concentrations far below local worker exposure standards. No shortcut pays off in lost time or incident reports, so training programs blend the best of regulatory requirements with what actually works for busy operators—emergency procedures get updated after every near-miss, not just annual reviews.

    Down the chain, waste minimization shapes batching recipes to reduce heel and flushes between products. We run periodic reviews with solvent recycling vendors to confirm destruction or reuse of any process-generated waste streams, always erring on the conservative side to avoid compliance surprises. Formulation partners value the traceability and open reporting of every chemical stream; these checks cut out the guesswork manufacturers face when tracking the fate of byproducts.

    Key Differences from Other Industrial Alcohols

    On the lab bench, all C7 alcohols might seem interchangeable. Plant experience tells a different story. 2-Methyl-3-Hexanol offers a tight boiling point window and predictable partitioning, crucial for multi-stage extractions and fractional blending. Unlike n-hexanol, this compound resists atmospheric oxidation just enough to let blended formulas hold color longer during open-mixing. Our performance data shows lower volatility losses and more controlled flash characteristics than 3-heptanol, so batch yields stay tight in closed-reactor systems.

    Methyl branching at the 2-position grants extra resistance to biological breakdown and shelf-life extension—especially when stored for longer projects or export shipments. Comparison trials have shown that straight-chain hexanols tend to introduce more off-notes after months in storage. When partnering with product developers in adhesives or lubricants, we contrast 2-Methyl-3-Hexanol’s stability and neutral handling odor with those more pungent, reactive alternatives. These performance shifts show up in finished product testing, not just as abstract values, but in how plant lines run over weeks or months of operation.

    While some high-purity alcohols present persistent haze or trace acidity as ongoing blending headaches, this product’s process lineage keeps these issues rarely encountered, even under high-heat or high-shear blending. Our team draws from hands-on practice and years troubleshooting blending lines to shape product improvements—constant improvement comes from shared feedback between the QC lab and bulk tank farm, never just from a paper specification.

    Working with the End-User: Solutions Based on Experience

    Most process chemists and production operators don’t need a sales pitch—they just want their next batch to run as expected. Over years of technical support calls, we have learned to focus on practical workflow improvements. When pressure builds on plant lines from a sudden spec change or a stall in supply from a global disruption, having a reliable source of 2-Methyl-3-Hexanol grants peace of mind. Fast response times from our shipping and technical teams build trust batch after batch.

    Now and again, a customer project launches that pushes standard material limits—perhaps demanding a tighter GC profile, or extremely low residual moisture for electronic applications. Our internal cooperation between production, analytical, and logistics groups lets us tune our batching and dispatch schedules to serve these projects without disrupting base-load supply. In one recent case, adapting a continuous distillation step instead of a batch process enabled a fast turnaround for a short-run specialty blend without increasing impurity drift in our main storage tanks. These agile process changes only happen if the manufacturing and QC teams know their equipment limits and have authority to act on real-time data.

    Material compatibility and ongoing support make the material a foundation for custom manufacturing. Downstream users return with requests for further purity refinement or altered delivery profiles—such as ISO tank shipments versus small pails for pilot runs. Because we share real process data and batch history, formulation chemists can build and scale new products faster, rather than waiting weeks for retest or root-cause analysis.

    Lessons Learned and Ongoing Innovation

    Competing in the specialty alcohol market takes more than matching specifications. Deep familiarity with reactor tweaks, distillation profiles, and hands-on troubleshooting sets manufacturers apart from traders or brokers. Regular team debriefs after major plant runs deliver improvement points for energy conservation, safety drills, and shipping logistics. By logging these changes and integrating them into data records, we cut down future downtime and improve consistency for our long-term partners.

    Recent years have seen a marked shift in customer expectations. Many buyers now seek extra transparency in batch records and traceability, reflecting rising demands for regulatory compliance and safety documentation. These requests match our own commitment to continuous quality assurance—updating and refining our analytical programs keeps our material ahead of regulatory curveballs. This proactive approach to both compliance and process innovation serves as a foundation for industry trust.

    A Manufacturer’s Takeaway: What Matters Most

    Every week brings new product requests, tighter specs, and more demanding processing environments. In our daily work, we focus on delivering 2-Methyl-3-Hexanol that matches both standard formulations and the niche demands of innovators across coatings, lubricants, and specialty chemicals. By making product quality and operational improvement part of the routine, not just an occasional initiative, we foster reliability and ongoing trust. The plant floor, the quality lab, and the shipping dock all play a role in ensuring that every shipment stands up to real-world use—not just on paper but in ongoing manufacturing performance. In the end, direct experience, knowledge of process limits, and open channels with end-users shape a product that stays relevant and valued across shifting market needs.