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4-Decanol

    • Product Name 4-Decanol
    • Alias Decan-4-ol
    • Einecs 203-947-6
    • 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

    978672

    Name 4-Decanol
    Iupac Name Decan-4-ol
    Molecular Formula C10H22O
    Molar Mass 158.28 g/mol
    Appearance Colorless liquid
    Boiling Point 213 °C
    Melting Point −1 °C
    Density 0.824 g/cm³
    Solubility In Water Slightly soluble
    Refractive Index 1.429
    Cas Number 589-67-5

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

    Packing & Storage
    Packing 4-Decanol is packaged in a 500 mL amber glass bottle with a secure cap, labeled with hazard information and chemical details.
    Shipping 4-Decanol is typically shipped in tightly sealed containers made of glass or compatible plastic to prevent leaks and contamination. It should be transported in a cool, well-ventilated area, away from sources of ignition, oxidizing agents, and direct sunlight. Compliance with all relevant chemical transportation regulations is required.
    Storage 4-Decanol should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and strong oxidizing agents. Store at room temperature and protect from moisture. Proper labeling and secondary containment are recommended to prevent accidental spills or exposure. Always follow standard chemical safety protocols and refer to the manufacturer's storage guidelines.
    Application of 4-Decanol

    Applications of 4-Decanol in Industrial Manufacturing

    4-Decanol is a linear fatty alcohol utilized by industrial manufacturers in several downstream sectors due to its surfactant properties, intermediate functionality, and role in complex organic synthesis. As a chemical raw material, it features consistently in regulated production processes where precision formulations and strict quality management are critical for market compliance and product performance.

    1. Synthesis of Plasticizer Esters for Flexible PVC

    Manufacturers in the plasticizer industry frequently select 4-decanol as a C10 alcohol feedstock for synthesizing specialty esters used in flexible polyvinyl chloride (PVC) formulations. Its branched molecular structure improves migration resistance and cold flexibility in the final polyesters. In esterification, producers react 4-decanol with phthalic anhydride or adipic acid under monitored acidic catalysis. Operators maintain detailed process controls to optimize conversion yield and limit side products, thereby ensuring plasticizer consistency in downstream compounding. Final esters must meet market-specific performance and migration limit standards.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006, Annex XVII for plasticizers
    • FDA 21 CFR 178.3740 (plasticizers for food-contact PVC)
    • EN 71-3:2019 (toy safety spc. for EU markets)
    • ISO 9001:2015 quality management for process control

    Typical usage ratio

    • 10–28 mol% of total polyol input in polyester plasticizer synthesis
    • Ratio adjusted according to desired low-temperature flexibility and migration characteristics

    Downstream process integration

    • Adds to esterification reactors at the initial charge stage for polyester plasticizer formation
    • Monitored via in-line GC analysis to track reaction completion and unreacted alcohol removal
    • Final purification via vacuum distillation to ensure product compliance

    Final product types

    • Polyester plasticizers for medical-grade tubing
    • Flexible PVC sheathing for automotive wire harnesses
    • Film and sheet for flooring and wallcoverings
    • Non-phthalate plasticizers for children's toys

    2. Manufacture of Surfactants for Industrial Cleaning Agents

    Industrial formulators employ 4-decanol as a primary alcohol precursor in the sulfation or ethoxylation steps to create surfactant molecules with targeted hydrophilic-lipophilic balance (HLB). Engineering teams optimize chain length and ethoxy group content to maximize detergency and minimize residue, supporting application in hard-surface and metal cleaning agents. In-process controls ensure precise dosing during ethoxylation, while environmental teams oversee wastewater and off-gas compliance. Commercial products rely on consistent chain distribution and fast biodegradation profiles to comply with international environmental regulations.

    Industry compliance standards

    • OECD 301B (ready biodegradability)
    • EU Detergent Regulation (EC) No 648/2004
    • US TSCA Section 5 Pre-manufacture Notification (PMN) for new surfactant components
    • ISO 14001 EMS for environmental impact monitoring

    Typical usage ratio

    • 20–35% by weight basis in fatty alcohol ethoxylate surfactant synthesis
    • Ratios vary depending on target cleaning strength and foaming properties

    Downstream process integration

    • Feeds directly to alkoxylation reactors equipped with real-time temperature and pressure monitoring
    • Integration with automated dosing controls for ethylene oxide addition
    • Post-reaction neutralization and pH balancing before product standardization

    Final product types

    • Heavy-duty degreasers for manufacturing equipment
    • Automotive and rail system cleaning agents
    • Machine-part pre-treatment liquids
    • Floor and hard-surface cleaners for facility management

    3. Fragrance Intermediate in Fine Chemical Perfume and Aroma Production

    In fragrance compounding, manufacturers use 4-decanol as an alcohol intermediate to prepare long-chain esters and ethers. When chemically reacted with acetic or benzoic anhydrides, it forms substances with floral and fresh-ozone notes suitable for high-volume fragrance bases and commercial aroma compositions. Cosmetic-sector partners run batch processes under GMP guidelines, closely monitoring residual alcohols and controlling trace volatile organics. Production lines often employ vacuum stripping and in-line perfumery chromatographic analysis to validate odor quality and regulatory residue limits in finished materials.

    Industry compliance standards

    • IFRA Standards for ingredient use and concentration limits
    • Cosmetic Regulation (EC) No 1223/2009
    • Good Manufacturing Practice (GMP) ISO 22716:2007
    • JSCI (Japanese Standards of Cosmetic Ingredients)

    Typical usage ratio

    • 1–9% of total alcohols in fragrance esterification and etherification reactions
    • Content tailored for blend volatility and solubility in end-use formulas

    Downstream process integration

    • Enters esterification or etherification reactors alongside co-reacting acid anhydrides
    • Controlled distillation and chromatographic fractionation post-reaction
    • Molecular sieving to capture traces of unreacted starting material

    Final product types

    • Perfume base concentrates for fine fragrances
    • Personal care aroma ingredients for body washes
    • Room and car air fresheners
    • Flavor and fragrance intermediates for industrial scent blending

    4. Fatty Alcohol Derivatives in Lubricant Additive Manufacturing

    Lubricant and specialty fluids formulators apply 4-decanol in producing custom ester oils and branching agents that enhance thermal stability and lubricity in synthetic formulations. Chemical processing teams integrate the alcohol during transesterification with selected carboxylic acids, controlling parameters to fine-tune viscosity index and pour point. Manufacturers running automotive or industrial lube blending lines benefit from 4-decanol’s mid-range molecular weight, which helps balance performance improvements with regulatory base oil content thresholds. Quality teams oversee full batch traceability and confirm final product compatibility and oxidation stability.

    Industry compliance standards

    • API (American Petroleum Institute) standards for lubricants
    • DIN 51517 (lubricating oils – requirements and testing)
    • ISO 21469 for safety of lubricants used in the food industry
    • ASTM D445 and D97 for kinematic viscosity and pour point

    Typical usage ratio

    • 5–15% by total transesterifiable content, adjusted for targeted viscosity grade
    • Amount varied based on blend requirements and base oil composition

    Downstream process integration

    • Introduced into transesterification reactors under controlled agitation and elevated temperature
    • Post-reaction treatment includes molecular distillation and mechanical filtration
    • Batch blending with performance additive packages before quality assurance release

    Final product types

    • Synthetic ester-based engine oils
    • Compressor and hydraulic lubricants
    • Industrial gear and bearing oils
    • Food-grade and pharmaceutical-process lubricants (where compliance is met)
    Free Quote

    Competitive 4-Decanol prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Understanding 4-Decanol from the Manufacturer’s Viewpoint

    Our facility has spent years refining the production of straight-chain alcohols, and 4-decanol is a solid example of targeted chemical craftsmanship. This colorless liquid carries the chemical formula C10H22O, and stands out for its primary alcohol group sitting on the fourth carbon in the decane chain. From a manufacturer’s perspective, this position directly influences its properties and impacts on downstream usage. 4-decanol offers a balance between molecular weight and flexibility for alkyl chain manipulations, making it reliable in both laboratory and industrial settings.

    What Sets 4-Decanol Apart in the Alcohol Landscape

    Straight-chain primary alcohols don’t all perform the same way. Unlike 1-decanol, which features the hydroxyl group at the terminal carbon and brings higher reactivity in certain esterification reactions, 4-decanol is less reactive, but more predictable for controlled oxidation or when designing sequences in organic synthesis. The midpoint position of the OH group gives it unique physicochemical behavior—solubility, boiling point, and compatibility with reagents follow a slightly different curve. Sometimes, formulators require an alcohol that dissolves slowly, resists premature oxidation, or brings a specific viscosity for lubricants or surfactants. In these use cases, 4-decanol earns its place.

    Day-to-day, chemists in our operation notice a marked contrast between handling 4-decanol and shorter-chain alcohols. Odor volatility is reduced, and the product brings a clean profile when introduced into solvent blends. This is especially important in customer operations involving flavors, fragrances, specialty coatings, or textile treatments, where off-notes or residual odor can spell trouble further down the supply chain.

    Quality by Design in Every Drum

    We produce 4-decanol in dedicated glass-lined reactors, using only high-purity decene feedstock and monitoring for trace contaminants at every stage. Inconsistent product ruins blends; particles and trace water can alter the performance of the final formulation, so tight controls over distillation and dehydration are not optional here. Multiple clock-checks are carried out with gas chromatography and Karl Fischer titration. Our batches average less than 0.2% water and show virtually undetectable levels of typical impurities such as decanal, decene, or shorter-chain alcohol carryovers. The target purity is 98% or better, because some applications in pharma, agriculture, or advanced polymers won’t tolerate less.

    Take the technical user in a surfactant plant. There, the residue profile matters just as much as the main ingredient. They rely on our data sheets, but also benefit from our open-door process audits. They often request blend-specific advice: whether our 4-decanol will interact with specialized catalysts, or if it will adjust the cloud point in their formulations. From our side, these conversations aren’t checklist items—they’re real exchanges that inform improvements in drying cycles, packaging processes, or impurity screenings.

    End-Uses and Their Demands

    People usually lump alcohols together, but in practice end-users pick 4-decanol for several distinct application streams. We’ve seen fragrance and flavor compounders use it as a masking agent—its midchain hydroxyl dampens the harshness of potent aldehydes and supports certain floral or woody notes. Lubricant formulators report a distinctive viscosity index when using 4-decanol, superior to shorter chains in certain synthetic blend bases. In agricultural adjuvants, 4-decanol brings spreading activity without damaging sensitive leaves, which helps premium pesticide and herbicide formulations do their job without creating phytotoxicity headaches.

    In textile and leather processing, formulators appreciate the reduced volatility over C6 to C8 analogs. Their dye baths show less evaporation loss and lower risk of fume exposure. A manufacturing partner once described how switching from 1-decanol to 4-decanol reduced downtime caused by fouling in their process lines, because the latter leaves fewer reactive end-groups available for unwanted side reactions.

    We find that certain electronics and plastic additive developers use 4-decanol as a chain-modifier in high-performance resins. The “placement” of the alcohol function, away from the terminal carbon, gives polymers a better balance of flexibility and toughness. We support this niche by delivering on-purity, but also with advice on storage and handling—our technicians work with customers to optimize feed rates and avoid oxygen exposure, preventing formation of peroxides that could otherwise compromise expensive runs.

    Product Models, Packing, and Transportation Realities

    We keep two primary models—standard grade and high-purity. The standard model covers industrial users with less-demanding requirements, while the high-purity grade meets specialty applications such as personal care, fine chemicals, or pharma intermediates. Both lines use the same base production process, but we add extra filtration and a final vacuum drying stage for the high-purity product, sometimes upon customer request. Every batch is traceable back to raw material lot, as part of our routine compliance and recall-prevention protocols.

    Transporting long-chain alcohols brings its own logistics. 4-decanol flows best at moderate temperatures, so we set guidance for storage between 10°C and 30°C, and avoid extremes that could cause thickening or separation. We rely on HDPE drums or steel totes, all lined to prevent contamination. In winter, customers sometimes report settling or slight crystallization in outdoor storage, which clears on gentle warming. Our shipping department monitors seasonal routes closely so there’s no surprise phase change upon arrival.

    Often, buyers ask about compatibility—will 4-decanol corrode seals, or blend well with their current feedstocks? From our years in production, the answer is straightforward: it acts as a neutral, stable alcohol toward most elastomers and remains miscible with paraffinic hydrocarbons, glycol ethers, and various esters. Environmental health and safety managers should know we run periodic tests for biodegradability and aquatic toxicity, matching benchmarks in regulatory frameworks such as REACH and TSCA, because customers today expect more than just technical data. We provide full batch documentation and open access to our SDS and COA archives.

    Why Rigorous Manufacturing Matters for 4-Decanol

    Producing midchain alcohols needs more than just a good synthetic route—it takes careful attention to every step, from sourcing high-grade olefins to end-stage purification. Any slip, and downstream users will see foaming, hazing, or reaction failures. A recent batch of decanol run through an insufficiently flushed reactor once caused a surge in downstream reactivity, traced back to a single tank’s contamination with C8 impurity. These stories become etched into process improvements, feeding room for operator vigilance. It’s the sort of lesson only a producer carries—a trader sees inventory flow, but the manufacturer watches reactions meter-by-meter, because they know a single deviation echoes through the supply chain.

    We keep our process lines segregated to avoid cross-contamination with lower alcohols, and routinely monitor batch tags at every fill point. Customers in pharmaceuticals or specialty fine chemicals often visit for audits, reviewing not just our raw data but our approach to operator training and plant maintenance. These interactions have helped raise our internal standards—we welcome them because only transparency and consistency can really support trust. Supply disruptions often trace back to inconsistent manufacturing, and users of specialty alcohols face enough pressure meeting evolving safety rules and quality benchmarks. Our experience says the surest way to a long-term partnership is to operate with that reliability front and center, not only on paper.

    Comparing to Other Alcohols in Practice

    From the view inside the plant, the differences among decyl alcohol isomers run much deeper than what can be tested on a benchtop. 4-decanol finds its way into formulations where blend stability, reaction control, and finished product aesthetics are valued over simple cleansing or solubilizing ability. Short-chain isomers vaporize quickly and bring sharper solvency or “bite”, which fits degreasing and basic solvent blends. 1-decanol, by contrast, finds use in plasticizers and detergents, but can bring a more noticeable odor and reactivity profile.

    During pilot projects with a fragrance manufacturer, blending trials revealed that 4-decanol suppressed some prominent base notes where primary or secondary alcohols skewed compositions. This subtle impact on olfactive performance underlines why producers must maintain strict specification controls. In another example, a paints and coatings partner found 4-decanol suitable for non-yellowing resin formulations, as it resists oxidation and preserves gloss compared to lower-chain or end-chain alcohols. These case studies reinforce that one-size-fits-all doesn’t apply. Professional users sometimes trial multiple isomers before settling on the right balance of touch, stability, and processibility.

    Sustainable Manufacturing and Regulatory Perspective

    The chemical industry faces new pressure for sustainable sourcing, waste minimization, and greener chemistry. Producing 4-decanol benefits from established feedstock streams, but our plant has shifted to optimize hydrogen use and capture off-gas emissions for heat recovery. We invest in on-site wastewater treatment, targeting near-zero alcohol runoff. Many customer sectors—especially agriculture and personal care—want assurance these efforts aren’t just marketing material, but proven through audit and reporting cycles.

    Handling regulatory frameworks has also become a part of chemical production. We routinely review classification changes under GHS and monitor substance status in markets worldwide. Collaboration with downstream users on novel applications usually means expanding our analytical library—developing new methods to quantify trace residuals or assess absence of restricted substances. These processes cost time and money, but over the years, have prevented blocks during export or at customs, protecting both our business and those of our customers from sudden disruption.

    Listening to Customers, Evolving the Product

    Manufacturing isn’t just running a fixed recipe. We regularly adjust our process parameters based on feedback from technical partners. In some years, requests for tighter impurity profiles drive us to add new filtration steps. Sometimes we adapt packaging protocols to reduce static risk or leaking, because handlers at client plants shared practical loading constraints.

    This ongoing loop means that our 4-decanol keeps pace with changing demands in surfactants, specialty polymers, or food-contact chemistries. Whether a solvent system shifts or a new regulation targets trace materials, our plant responds faster than a purely distribution-driven supplier. The benefit for formulators is access to a producer with real-time process know-how and a willingness to dive into root cause analysis, rather than hiding behind standard answers.

    Meeting Today’s and Tomorrow’s Industry Needs

    In a manufacturing environment shaped by tighter standards and closer scrutiny on environmental impact, 4-decanol serves as a bridge between functional performance and specification discipline. Customers increasingly scrutinize sustainability, batch consistency, and supply assurance. We handle these demands by blending experience with up-to-date process control—the evolution isn’t just in our hardware, but in the skills and mindsets of our chemical teams. They track batch histories, troubleshoot scale-up issues, and advocate for process improvements that show up in every drum shipped.

    We work alongside formulation chemists, R&D managers, and procurement teams day in and day out. Their real-world needs shape the way we approach both our existing standard lines and how we develop new grades or tweak processes. This hands-on orientation supports direct, practical answers—whether that involves a custom impurity check or arranging flexible deliveries to minimize job site congestion.

    Summary of Why 4-Decanol Deserves Attention from Critical Users

    From a chemical manufacturing perspective, producing and delivering 4-decanol requires care, feedback, and process intelligence at every step. It’s a building block whose performance reaches from laboratory synthesis to mass production in industries where reactivity and product consistency can’t be left to chance. Unlike “commodity” alcohols, 4-decanol answers the call for control—over volatility, odor, reactivity, and purity.

    Customers working in complex, high-value sectors recognize these differences and value suppliers ready to deliver not just drums of product, but a process and relationship built on deep bench experience. Our crews invest in that every day, knowing every improvement in the plant finds its way downstream, where partners and end-users stake their own success—and reputations—on every molecule we ship.