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1H,1H-Perfluoro-1-Tetradecanol

    • Product Name 1H,1H-Perfluoro-1-Tetradecanol
    • Alias Perfluorotetradecanol
    • Einecs 700-201-6
    • 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

    203016

    Chemical Name 1H,1H-Perfluoro-1-Tetradecanol
    Molecular Formula C14F27HO
    Molar Mass 740.13 g/mol
    Cas Number 2043-47-2
    Appearance White solid
    Melting Point 60-65°C
    Boiling Point N/A (decomposes before boiling)
    Solubility In Water Insoluble
    Density 1.83 g/cm³ (approximate)
    Purity Typically >95%
    Functional Group Alcohol (hydroxyl group)
    Odor Odorless
    Storage Conditions Store in a cool, dry place away from sunlight
    Refractive Index n20/D ~ 1.320 (estimate)

    As an accredited 1H,1H-Perfluoro-1-Tetradecanol 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 25 grams of 1H,1H-Perfluoro-1-tetradecanol, sealed with a screw cap and labeled for laboratory use.
    Shipping 1H,1H-Perfluoro-1-tetradecanol should be shipped in tightly sealed, chemical-resistant containers, protected from physical damage and extreme temperatures. Transport as a non-hazardous material, unless local regulations specify otherwise. Ensure clear labeling and include a Safety Data Sheet (SDS). Comply with all relevant shipping laws and guidelines for fluorinated compounds.
    Storage 1H,1H-Perfluoro-1-tetradecanol should be stored in a tightly sealed container in a cool, dry, and well-ventilated area. Protect it from moisture, heat, and sources of ignition. Store away from incompatible substances such as strong acids and bases. Ensure proper labeling and limit access to authorized personnel. Follow all relevant safety and regulatory guidelines for storage and handling.
    Application of 1H,1H-Perfluoro-1-Tetradecanol

    Applications of 1H,1H-Perfluoro-1-Tetradecanol in Industrial Manufacturing

    1H,1H-Perfluoro-1-Tetradecanol is a specialized fluorinated alcohol widely used in high-end technical fields for its unique surface and chemical properties. Our controlled manufacturing enables consistent supply for advanced applications requiring stringent standards of purity, performance, and safety throughout diverse industrial sectors.

    1. Fluorinated Surfactants for Firefighting Foams

    As a key C14 fluorinated alcohol, this compound plays a critical role in the formulation of Class B aqueous film-forming foams (AFFF) and film-forming fluoroprotein foams for firefighting. The molecule’s high fluorine content enhances film formation at the fuel/air interface, supporting rapid flame suppression and vapor barrier creation. Precise dosing in concentrate blends ensures both environmental compliance and firefighting performance, especially under high-risk hydrocarbon spill scenarios.

    Industry compliance standards

    • EN 1568-3:2018 (Firefighting foams for hydrocarbons)
    • NFPA 11 (National Fire Protection Association standard for Low-, Medium-, and High-Expansion Foam)
    • Directive 2006/122/EC (PFOS restriction for fire-fighting agents, EU)
    • US EPA PFAS Stewardship Program guidelines

    Typical usage ratio

    • 0.2–1.5% of total concentrate, adjusted based on required spreading coefficient and TSS profile of the finished foam product

    Downstream process integration

    • Direct blending into surfactant phase alongside hydrocarbon and hydrolyzable fluorosurfactants
    • Stabilization through pH buffering before batch emulsification

    Final product types

    • AFFF (Aqueous Film Forming Foam) concentrates
    • FFF (Fluoroprotein Foam) concentrates
    • Pre-mixed fire extinguishing liquids

    2. Oil and Water Repellent Finishes for Textiles

    This perfluorinated alcohol serves as a chain transfer agent and reactant during the synthesis of fluorochemical finishing agents for technical textiles. It delivers highly durable non-wetting surfaces by covalently integrating into polymerizable side chains. Formulators apply it to enhance penetration on polyester, nylon, and cotton blends, optimizing both oil and water repellency without compromising handle or breathability.

    Industry compliance standards

    • OEKO-TEX Standard 100, Annex 6 (for restricted perfluorinated compounds)
    • ZDHC MRSL Version 3.1 (Manufacturing Restricted Substances List for apparel and footwear)
    • Bluesign System chemical approval
    • REACH SVHC (EU Registration, Evaluation, Authorization and Restriction of Chemicals)

    Typical usage ratio

    • 0.5–2.8% against resin solid weight, with adjustment according to substrate absorbency and target spray rating

    Downstream process integration

    • Polymerization stage of fluorinated acrylate/copolymer dispersions
    • Post-polymer grafting during textile padding or exhaustion finishing process

    Final product types

    • Outdoor and industrial protective garments
    • Technical workwear fabrics
    • Premium upholstery textiles with water/oil repellency

    3. Microelectronics Photoresist and Etch-Resist Formulations

    The chemical structure offers highly uniform wetting and interfacial tension control in microelectronics fabrication fluids. Its use in advanced photoresist and anti-reflective coatings ensures effective imaging at sub-micron feature sizes, while minimizing pattern collapse and material residue. Strict process consistency and ultra-low ionic contamination are critical at this scale to support rapid wafer throughput and high device yields.

    Industry compliance standards

    • SEMI C93 (Specification for chemical purity in semiconductor manufacturing)
    • ANSI/ESD S20.20 (For ESD-safe materials in electronics manufacturing)
    • RoHS Directive 2011/65/EU (for chemicals in electronics)
    • IATF 16949:2016 (Automotive sector quality management)

    Typical usage ratio

    • 0.03–0.15% by total resist weight, increased for low feature aspect ratio die or reduced for thin film stacks

    Downstream process integration

    • Formulation blending with resist monomers and photoactive compounds
    • Spin-coating or spray deposition on prepared silicon wafers

    Final product types

    • IC (Integrated Circuit) photoresists
    • PCB (Printed Circuit Board) etch resists
    • Micro-lithographic anti-reflective coatings

    4. Anti-Fouling and Corrosion-Resistant Marine Coatings

    The compound’s extended perfluorinated side chain provides high hydro- and oleophobicity to specialized marine coatings, dramatically lowering surface energy and impeding biofilm buildup. Manufacturers integrate it as a modifier or co-binder in silicone or epoxy matrices, where robust anti-attachment performance and enhanced chemical resistance remain critical for vessel and offshore structure maintenance.

    Industry compliance standards

    • IMO International Convention on the Control of Harmful Anti-fouling Systems (AFS/CONF/26)
    • ISO 12944-6 (Paints and varnishes – Protective paint systems for offshore structures)
    • BS 5493:1977 (Code of practice for protective coatings)
    • US EPA VGP (Vessel General Permit) for biocidal release limits

    Typical usage ratio

    • 0.8–2.2% by binder solids, adjusted according to target film thickness and desired water contact angle

    Downstream process integration

    • Chemical modification of resin base in pre-polymerization stages
    • Blending into top-coat pigment slurries for final adjustment before solvent reduction and application

    Final product types

    • Marine anti-fouling paints
    • Heavy-duty corrosion protection coatings for offshore equipment
    • Specialty yacht and hull topcoats

    5. High-Purity Lubricant Additives for Precision Engineering

    This alcohol functions as a high-performance friction modifier and anti-wear additive within specialty lubricants for vacuum pumps, quantum computing systems, and ultra-high vacuum (UHV) instrumentation. Its perfluorinated backbone withstands extreme oxidative and thermal conditions, improving lubricant stability even under repeated cycling. Producers target precise integration to avoid interference with sensor calibration or dynamic system balance.

    Industry compliance standards

    • ISO 6743-13 (Classification of lubricants for vacuum pumps)
    • ASTM D7042 (Kinematic viscosity of lubricants)
    • IEC 60296 (Electrical insulating oils, purity requirements)
    • REACH Regulation (Composition certification for EU supply)

    Typical usage ratio

    • 0.1–0.9% by base oil volume, tuned based on operation temperature range and vapor pressure requirements

    Downstream process integration

    • Incorporation during controlled vacuum blending with synthetic PFPE (perfluoropolyether) or PAO base oils
    • Filtration to ultra-trace particulate levels before final drum filling

    Final product types

    • Vacuum pump oils for semiconductor assembly
    • Non-conductive lubricants for aerospace sensors
    • UHV-compatible greases for research instrumentation

    6. Surface Treatment Agents for Technical Glass and Ceramics

    The unique surface-active properties of the compound support high-efficiency monolayer formation on glass and technical ceramic surfaces. Treatment grades aim to reduce fingerprint adhesion, marking, and dirt pickup while maintaining optical clarity. This is vital for touch-sensitive panels, sensor optics, and medical device windows, where long-term exposure stability and low leachability must be guaranteed during end use.

    Industry compliance standards

    • ISO 14443-2 (Coating performance for electronic display glass)
    • USP Class VI (Biocompatibility for medical device coatings, if medical face utilization)
    • IEC 62321-4:2017 (Analysis of certain substances in electronic coatings)
    • DIN 52348 (Testing of physical durability for glass coatings)

    Typical usage ratio

    • 0.1–0.5% in coating solution, depending on desired wetting angle and substrate geometry

    Downstream process integration

    • Solution blending for vapor-phase or dip-coating application lines
    • Curing in clean-room ovens or UV systems with post-process purity control

    Final product types

    • Anti-smudge touch panel glass
    • Specialty optics and laser cover windows
    • Medical diagnostic device screens
    Free Quote

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    Certification & Compliance
    More Introduction

    Introducing 1H,1H-Perfluoro-1-Tetradecanol Directly from the Manufacturer

    Thinking Long-Term: Why We Focus on 1H,1H-Perfluoro-1-Tetradecanol

    Here at our facility, we dedicate years to refining the processes involved in the production and quality control of fluorinated alcohols. Among them, 1H,1H-Perfluoro-1-tetradecanol, or simply Perfluorotetradecanol, stands out. The attention it receives results from market changes, evolving environmental regulations, and, above all, customer demand for consistency and performance. We address these requirements using honest technical evaluation, direct feedback from end-use applications, and methodical advancements in our own labs.

    Specifications That Match Real-World Demands

    Our synthetic process takes high-purity perfluoro precursor and applies precise distillation routines. In-house, we measure boiling point, melting range, moisture content and fluorine content batch by batch. This particular fluorinated alcohol, with CAS number 376-85-0 and average molecular weight above 400 g/mol, produces a white, waxy solid with consistent characteristics. Our chemists stress-test each lot for stability, since the hydrogen atom at one end can make or break surface-modifying applications.

    We do not ship product out if it falls outside our narrow purity range, which we target at over 98%. Moisture, acidic impurities, or side-products from incomplete perfluorination can weaken the chemical's performance and shorten its shelf life. We constantly invest in new purification equipment to improve yield while preserving the fluorinated chain’s integrity.

    Practical Uses Shaped By Feedback from Industrial Partners

    Much of our understanding comes from our direct work with fabric finishers, electronics assemblers, and surfactant formulators. 1H,1H-Perfluoro-1-tetradecanol often finds its way into non-stick surface modification, water and oil repellency treatments, and specialized coatings. The long perfluorinated backbone gives a level of hydrophobicity and oleophobicity that few other alcohols achieve. This feature is not theoretical — we have seen our product used on technical fabrics for extreme outdoor gear, for medical tubing, and even for niche lubricant blends.

    Customers convey to us the real pain points in their own lines. Some need greater chemical resistance in high-voltage insulation. Others pursue a smoother, defect-free coating on advanced textiles. Perfluorotetradecanol offers solutions in each of these cases, and over the years, we have adjusted our particle size and packaging to better serve different processes: some need powder for blending, some request melts for direct application.

    How It Differs from Conventional and Shorter-Chain Fluorinated Alcohols

    Our experience with shorter-chain analogs, such as perfluorohexanol or perfluorooctanol, reveals clear limitations. Shorter chains can deliver some surface protection, but meaningful oil repellency only emerges when using longer perfluorinated segments. 1H,1H-Perfluoro-1-tetradecanol provides the hydrophobic power required for truly durable applications, especially in environments exposed to abrasion, solvents, or thermal cycling.

    Traditional hydrocarbon alcohols lack the chemical inertness and are prone to oxidation, degradation or simply washing out. Our longer-chain product resists enzymatic breakdown, ozone attack, and most solvents. This is a direct result of the heavily fluorinated chain, which repels both water and oily contaminants to a degree that traditional surfactant chemistries cannot match.

    Formulation Know-How: What We Have Learned

    Over years of hands-on work, we found that 1H,1H-Perfluoro-1-tetradecanol interacts with binders, resins and additives differently compared to shorter homologs. Its lower polarity and higher molecular weight create a tighter interface at the boundary of treated surfaces. It resists migration and exudation — critical for coatings and surface-modification chemistries that must endure months or years in service.

    We share these observations with users. For example, in finishing baths, this fluorinated alcohol integrates smoothly into cationic and non-ionic surfactant systems. It lays down a monolayer with minimal migration or leaching, extending the life of fabric treatments. In electronic applications, such as circuit protection or wire insulation, the non-conductive nature and weather resistance minimize failure rates, even under aggressive test cycles. Our role involves not only producing to spec but revising our own process in the light of new application data.

    Handling, Safety, and Long-Term Considerations

    Safety requirements for handling perfluorinated chemicals have grown stricter with each passing year. We build our manufacturing systems to contain and recover vapors, recycle solvents, and avoid exposure to both workers and the environment. Shelf-stable packaging, strict labeling, and transparent documentation satisfy certification bodies and customer audits. Our safety culture comes from direct experience — every unnecessary incident or loss teaches us to reinforce our protocols and adjust our equipment.

    From customers, we see an increasing focus on minimizing PFAS emissions, and we work proactively to comply with new disposal and effluent standards. Our facility operates close-loop scrubbers for waste streams, and we participate in local industry forums on best practices for handling persistent chemicals.

    How We Respond to the Push for Greener Chemistry

    Pressure to reduce or replace long-chain perfluorinated compounds arrives from multiple fronts: regulatory changes, end-user preferences, and broader shifts in environmental awareness. Our technical team continually investigates bio-based and non-fluorinated alternatives, although none match the specific durability offered by 1H,1H-Perfluoro-1-tetradecanol in the toughest surface-protection cases.

    Our process tries to minimize ecological impact while staying practical for scale. Solvent recovery has improved, and we use stricter in-process monitoring. We run pilot trials of alternative synthetic routes, such as electrochemical fluorination and partially fluorinated intermediates, to identify routes to modify the environmental profile of our entire line.

    Some users, particularly in textiles and electronics, require documentation on fluorine content, absence of extractable short-chain PFAS impurities, and lifecycle stewardship. We supply full traceability on batches, in keeping with the growing expectation for supplier transparency.

    Refining for Consistency: Batch to Batch, Year after Year

    The end-use quality depends not just on raw chemical purity but on fine details: moisture control, uniformity of melting characteristics, and absence of extraneous odor or haze in finished goods. Our internal testing regime checks every drum of product. The staff in the plant know reliability comes from a clean, repeatable process, not from dipping into fluctuating feedstock or relaxing test standards for convenience.

    Improving consistency directly benefits every customer, whether they use hundreds of kilograms each month or run micro-scale specialty applications. Our team reviews every report on product variability or anomalies, and we track trends in both laboratory and customer feedback. Stable performance minimizes reformulation headaches and claims — lessons learned the hard way over years serving high-spec industry sectors.

    Industry Collaboration: Learning by Partnership

    Our success in delivering 1H,1H-Perfluoro-1-tetradecanol owes much to relationships with formulation scientists, production engineers, and quality managers along the value chain. When a customer requests a tighter particle-size distribution or deals with a new regulatory hurdle, we adjust, learn, and often improve our processes across the board. Open communication with our users, not just sales, defines long-term supply relationships.

    Many users share back data on wear resistance, electrical insulation, or chemical compatibility, which guides our efforts on refining the process. For example, we discovered that better pre-treatment and packaging reduce product clumping in humid climates, which directly benefits downstream handling and use. These small improvements accumulate and reduce intervention or troubleshooting on the customer end.

    Seeing the Bigger Picture

    Advanced fluorinated alcohols like 1H,1H-Perfluoro-1-tetradecanol no longer serve as niche curiosities. Their unique physical and chemical properties drive technical innovation in industries demanding the highest standards from surface protection materials. Public expectations and regulations continue to change, and our job as the producer is to adapt, not just comply, but actively improve the performance and responsibility of our supply chain.

    The questions we ask ourselves every day: Does this batch deliver as reliably at month six as it does on the day of delivery? Can the user trust that each shipment matches their validated formulation? Will our manufacturing methods meet tomorrow’s environmental benchmarks? We keep these standards at the center of every shift, every batch, every new technical request.

    Frequently Seen Application Results

    Customers come to us with specific requirements. Many want their final coatings to withstand years of UV exposure without cracking or loss of repellency. Others need a balance between slip, adhesion, and long-term stability, especially for products used in medical and food-contact settings. 1H,1H-Perfluoro-1-tetradecanol enables these exacting standards, provided the formulator understands how to integrate it into their matrix. We share insights from our R&D work: slow addition rates, proper solvent choices, and post-application curing all impact eventual durability.

    Feedback cycles help us pinpoint subtle performance factors. Textiles treated with our material often show less yellowing and improved stain resistance even after high-temperature laundering. In insulation sheaths, loss of hydrophobicity only appears after harsh electrical corona treatments, confirming field reliability. Coatings incorporating our product outperform common alternatives under repeated chemical wipe-downs.

    What Makes Our Approach Different?

    Being the manufacturer carries obligations and advantages. We own the outcome from raw material selection through to the finished, packaged lot. Our people control every equipment calibration, develop every process control chart, and see the same challenges that end users report. When a new production variable causes drift in critical specs, our technical people notice early and intervene before the issue becomes systemic.

    Compared to market-sourced material or unverified imports, our direct production achieves the purity and consistency that specialty industries require. We see competitors struggle with cross-contamination or traced back deviation in purity specs. Our business model hinges on a shorter, more transparent supply chain, supporting direct dialogue and trouble-shooting with the end user’s technical staff.

    Progress in Analytical Capability

    We invest heavily in analytical technology — NMR, GC-MS, and precision titration — not as a marketing point but as a direct response to the complexity of modern requirements. Trace contaminants matter in applications ranging from semiconductor wetting agents to life-sciences packaging. Our ability to detect, diagnose, and eliminate unwanted by-products gives both ourselves and our users confidence in each production run.

    Better analysis tools let us validate new approaches. When we introduce a modification, we document every parameter: reagent selection, time curves, post-treatments, packaging materials. Documentation and real trend data help us troubleshoot any long-term stability issues reported from the field. These are not theoretical concerns but reflect decades of experience in specialty manufacturing.

    Pain Points and Continuous Improvement

    Production never becomes entirely routine. We encounter seasonal humidity swings, variations in precursor quality, and shifting regulatory requirements. Each challenge pushes us to design better controls or find workarounds. We learn from mistakes, whether it means addressing a rare off-odor report or handling a regulator’s new request for batch-level traceability data.

    We have seen failures from improper storage or cross-contamination ruin large-scale shipments at other facilities. That reality drives our investment in container integrity, airtight drum closures, and short pathway packaging lines. Through ongoing staff training and regular audits, we address root causes, not just symptoms, of problems.

    Supply Chain and Global Trends

    Raw material price swings and shipping delays challenge everyone, including us. We diversify our sourcing and work closely with logistics partners to buffer against unexpected bottlenecks. Dual-source strategies and forward inventory help us keep commitments in volatile conditions. These aren’t textbook approaches — they stem from years of managing daily plant operations and working through the real-life stress of back-orders or customs holdups.

    Facing Tomorrow’s Challenges

    Regulatory scrutiny will only intensify, especially as perfluorinated chemicals attract more attention. We prepare by staying close to developing limits, updating MSDS and shipping paperwork, and rigorously controlling emissions and effluents. Transparency builds trust not only with regulators but with customers looking for long-term partners.

    There is no shortcut to building a reputation for reliability and openness. We document every control process, certify every lot, and back our work with direct technical support. In a world moving toward higher standards, we believe in continuous learning, improving, and communicating.

    Focused on User Success

    At the end of each story, every improvement and every investment circles back to user results. The value of 1H,1H-Perfluoro-1-tetradecanol lies not only in its unique molecular properties but in the attention to detail that produces steady, reliable batches. The collective experience at our facility — from research to production to frontline technical support — shapes the material’s advantages. Our mission as a true manufacturer means producing something more than a commodity. Reliability, deep technical knowledge, and an open approach to progress define what our customers receive. With every shipment, we aim for performance that makes a measurable difference where it counts most: in the field, in the lab, and in the world’s most demanding industrial environments.