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Perfluoro-Tert-Butanol

    • Product Name Perfluoro-Tert-Butanol
    • Alias PFTB
    • Einecs 206-203-0
    • 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

    755121

    Chemical Name Perfluoro-tert-butanol
    Chemical Formula C4F10O
    Cas Number 75-89-8
    Appearance Colorless liquid
    Boiling Point Celsius 80
    Melting Point Celsius -35
    Density G Per Cm3 1.75
    Solubility In Water Insoluble
    Refractive Index 1.272
    Flash Point Celsius Non-flammable
    Pubchem Cid 11638

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

    Packing & Storage
    Packing Perfluoro-Tert-Butanol, 25g, is supplied in a sealed amber glass bottle with a secure screw cap, labeled with hazard information.
    Shipping Perfluoro-tert-butanol should be shipped as a hazardous chemical, following all applicable regulations. It must be securely contained in tightly sealed containers, typically glass or compatible plastic, and packed with appropriate cushioning. Clearly label packages with hazard warnings and shipping documents. Temperature control may be required to prevent decomposition or accidental release.
    Storage Perfluoro-tert-butanol should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight, in a cool, well-ventilated, and dry area. It must be kept separate from incompatible materials like strong bases and reducing agents. Ensure proper chemical labeling, use secondary containment to prevent leaks, and restrict access to authorized personnel only.
    Application of Perfluoro-Tert-Butanol

    Applications of Perfluoro-Tert-Butanol in Industrial Manufacturing

    As a specialized manufacturer of perfluoro-tert-butanol, we enable chemical industries to exploit this unique intermediate in several advanced downstream fields. Below we highlight established applications, each displaying distinct regulatory, formulation, process, and finished product details specific to their industrial contexts.

    1. Synthesis of Fluorinated Agrochemical Active Ingredients

    Downstream producers employ our product as a high-purity fluoroalcohol building block for creating advanced agrochemical actives, with its structural attributes facilitating targeted modifications on aromatic or heterocyclic cores. The unique electron-withdrawing nature improves metabolic stability, allowing formulators to design crop protection compounds with enhanced field efficacy while remaining within regulatory requirements. Selection of dosage depends on the molecular design and desired activity spectrum, and downstream integration usually involves nucleophilic substitution or etherification steps.

    Industry compliance standards

    • FAO/WHO JMPR Guidelines for Pesticide Residues
    • EU Regulation (EC) No 1107/2009 (Plant Protection Products)
    • EPA 40 CFR Part 180 (U.S. Tolerances for Pesticide Chemicals in Food)
    • ISO 9001-based Quality Management for Crop Protection Formulations

    Typical usage ratio

    • Applied at 1-10 mol% relative to target molecule, adjusted per synthetic step efficiency and cost considerations

    Downstream process integration

    • Introduced during late-stage fluorination or etherification of agrochemical intermediates; key during custom synthesis of selective herbicides, fungicides, or insecticides

    Final product types

    • Pre-emergence herbicides with perfluorinated motifs
    • Systemic fungicides with enhanced environmental persistence
    • Seed treatment actives for export regulated by OECD standards

    2. Pharmaceutical Fluorinated Drug Intermediate Manufacturing

    Multinational pharmaceutical ingredient producers integrate the material as a specialty intermediate to introduce perfluoroalkyl groups into active pharmaceutical ingredients, in order to tailor drug metabolism, membrane permeability, and receptor selectivity. Quality control teams monitor traceability and residual fluorinated alcohols through validated analytical methods, and auditors confirm adherence to international pharmacopeial and cGMP systems. The input ratio is tightly specified to maximize yield in critical coupling or etherification reactions, especially during late-phase process chemistry campaigns.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • United States Pharmacopeia (USP) and European Pharmacopoeia (Ph. Eur.) monographs for residual solvents and fluorinated intermediates
    • FDA 21 CFR Part 211 (cGMP for Finished Pharmaceuticals)
    • EMA Guidance on Genotoxic Impurities

    Typical usage ratio

    • 0.5–5 mol% based on specific synthetic route; quantity refined according to batch scale-up data and impurity profiles

    Downstream process integration

    • Fed into step-growth synthesis as a protected alcohol or reactant for selective perfluoroalkylation; commonly used in final-stage assembly or protection group strategies

    Final product types

    • Oral and injectable fluorinated APIs including antineoplastic agents and CNS drugs
    • Advanced intermediates for patent extension molecules
    • Research-grade reference standards for clinical batches

    3. Fluoropolymer Manufacturing for Electronics and Resistant Coatings

    Electronic material producers integrate this compound into precursor syntheses for high-value fluoropolymers and specialty resins. The structure imparts hydrophobicity and chemical resistance critical for semiconductor photoresist binders, wire insulation materials, and anti-graffiti paints. Depending on targeted polymer architecture, formulation scientists determine addition ratios to balance processability against thermal and dielectric properties. Downstream incorporation takes place during initiator modification or reactive chain transfer in emulsion or solution polymerization settings.

    Industry compliance standards

    • RoHS (Restriction of Hazardous Substances Directive, EU 2011/65/EU)
    • REACH (EC 1907/2006 Registration, Evaluation, Authorisation of Chemicals)
    • UL 94 (Standard for Safety of Flammability of Plastic Materials)
    • IEC 61249-2-21 (Requirements for Halogen-Free Electronic Substrates)

    Typical usage ratio

    • Incorporated at 0.1–3 wt% in precursor mixtures; adjustments based on targeted fluorine content or desired hydrophobicity/oleophobicity

    Downstream process integration

    • Introduced during prepolymer or co-monomer modification phase; utilized as a chain modifier or branching agent prior to bulk or solution polymerization

    Final product types

    • Photoresist polymers for integrated circuit (IC) fabrication
    • High-frequency PCB laminates for telecommunications equipment
    • Anti-fingerprint or anti-graffiti surface coatings
    • Wire and cable sheathing for automotive and datacenter cabling

    4. Synthesis of Fluorinated Surfactants for Institutional and Industrial Cleaning

    Producers of cleaning and specialty surfactant formulations use the material as a precursor for crafting highly stable, low-surface-tension agents. Its perfluorinated alcohol structure enables the creation of non-ionic or amphoteric fluorosurfactants, valued in critical cleaning for optics, electronics, and industrial degreasing. Environmental and safety regulation dictates strict formulation controls, and entry into process tanks occurs during alkoxylation or sulfonation modification steps. Downstream quality processes focus on monitoring free fluorinated alcohols and downstream surfactant purity by LC-MS methods.

    Industry compliance standards

    • OECD Guidelines for the Testing of Chemicals (Biodegradability, Ecotoxicology)
    • Directive (EC) No 648/2004 (Detergents Regulation, EU)
    • US TSCA (Toxic Substances Control Act) Inventory Listing
    • EN 1276 (Chemical Disinfectants – Bactericidal Activity)

    Typical usage ratio

    • Used at 0.5–2.5 mol% for specialty surfactant synthesis; range refined based on needed surface tension reduction and foaming profile

    Downstream process integration

    • Alkoxylation or sulfonation step for specialty surfactant formation; introduced as a reactive monomer prior to chain extension or functionalization

    Final product types

    • Low-foaming industrial wetting agents for metal cleaning
    • Specialty detergents for precision optical and electronic device rinsing
    • Institutional degreasing agents for food processing and pharmaceutical plants
    • Nonionic fluorosurfactant additives for inkjet ink
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    Certification & Compliance
    More Introduction

    Perfluoro-Tert-Butanol: Purpose-Built Fluorinated Alcohol from the Source

    Unique Chemistry Driving Real-world Performance

    As a producer with decades of hands-on experience in high-performance fluorochemicals, we’ve witnessed our Perfluoro-Tert-Butanol (PFTB) carve out a strong position in laboratories, industrial processes, and specialty research. In the field, chemists and engineers often search for stable, highly fluorinated alcohols with consistent purity, tailored for demanding synthesis and analytics. PFTB, with CAS number 75-89-8, stands out for its trifluoromethyl structure, extreme hydrophobicity, and non-flammable nature, bringing consistency where lesser alcohols falter.

    Compared to common tert-butanol or even standard perfluoroalkyl alcohols, PFTB resists acids, bases, and oxidation. Many clients report that generic alcohols degrade quickly under aggressive conditions, impacting yields in sensitive coupling reactions or causing unpredictable behavior in high-throughput screening. With our tightly controlled purification—relying on proprietary low-temperature distillation—PFTB typically exceeds 98% purity as validated by NMR and gas chromatography.

    As an original manufacturer, we’re not simply packaging drum lots of someone else’s raw output. Our technical teams operate fluorination units year-round, tracking feedstock sources, and repeatedly testing each lot before release. What the customer receives directly reflects our own daily QA efforts, from anion checks up to impurity isolation.

    Why Chemists Choose Our PFTB

    Today’s chemistries don’t allow for broad tolerances in solvents and reagents. The most common reasons formulation chemists and organofluorine researchers select our PFTB often boil down to purity, moisture control, and batch-to-batch consistency. In peptide coupling and surface modifications, a few parts-per-million of water or mixed perfluoro isomers spell lost time and costly reruns.

    Our PFTB maintains tightly controlled water content, typically under 100 ppm on shipping. Other sources often ship with higher residuals, risking premature hydrolysis when pipetted into anhydrous reaction environments. Researchers in academic and commercial labs who’ve switched to our grades frequently report improved reproducibility for Suzuki, Negishi, and Sonogashira reactions or fluoropolymer chain extension tests.

    Handling matters too. Many perfluoroalkyl alcohols emit sharp odors or introduce corrosive byproducts as impurities break down. Chemists handling our product comment on minimal vapor loss and noticeably less residue in glassware, thanks to the genuine purity. No sticky films, no exaggerated vapor alarms, even during larger scale-up trials.

    Specifications That Meet Practical Demands

    Extreme conditions shape real-world chemistry. It’s one thing to advertise a perfluorinated alcohol with generic “high purity;” it’s another to sustain uniformity at scale. We manufacture PFTB through direct electrochemical fluorination, isolating core fractions under sub-atmospheric pressures, then passing each batch through rigorous molecular sieving. This sequence eliminates low-boiling side products and prevents fluorinated acid carryover.

    In actual use, PFTB appears as a colorless, crystal-clear liquid at room temperature, melting near 25°C and boiling past 82°C. The density, close to 1.6 g/cm³, and high vapor pressure mean chemists can rapidly evaporate samples in controlled evaporation setups, recovering product for GC-MS or LC-MS analysis. Since our in-house logistics don’t outsource drum filling or seal control, each drum or bottle ships with batch tracker codes, supporting full traceability down to lot-specific NMR and moisture readouts.

    Solvent compatibility guides daily decisions. Our product dissolves fluorinated monomers, resists strong bases and acids, and lets customers tailor reactions for high-yield fluorination steps. Practical users benefit from solvent-grade consistency—removing the guesswork and minimising repeat calibrations.

    Usage: From Lab Bench to Pilot Line

    PFTB rarely sits idle. Its unique molecular shape—three bulky perfluoro groups centered on one hydroxyl—lets it act as a reactive intermediate, specialty solvent, or extinction marker in a range of applications. In university and proprietary R&D programs, chemists value its resistance to hydrolysis, allowing more aggressive conditions during fluoropolymer initiations or during high-throughput mass spectrometry calibration blends.

    In synthetic organic chemistry, the strong electron-withdrawing fluorine atoms push the alcohol to extreme acidity, while the bulky structure blocks unwanted side reactions. Peptide researchers report sharper selectivity in coupling cycles. Surface scientists use neat or diluted PFTB to tune the wettability of semiconductor substrates, supporting research into PTFE-like coatings or superhydrophobic films. Analytical chemists value its volatility and UV absorbance signature for LC-MS calibration and spectroscopic standards.

    During calibration, PFTB presents a reliable volatility point across a wide temperature span, outperforming lighter perfluoro alcohols that either vaporize too quickly or degrade above 50°C. High R&D throughput projects—such as automated parallel synthesis or microfluidic screening—run smoother and produce reliable data, even in solvent-rich or open-vessel conditions.

    Standing Apart from Commodity Offerings

    Markets abound with perfluoroalkyl building blocks and bulk alcohols, typically offered in mixed isomer forms or with relaxed QC. Commodity grades often slip past detailed NMR inspections, bearing traces of perfluorinated acids, unreacted feedstocks, or incomplete fluorination. Our PFTB stands apart due to its verified single isomer state and contaminant control—ensuring each process batch matches the last both chemically and physically.

    Customers who pivot from distributor-packed material rapidly spot the difference: uniform phase separation when blended into nonpolar solvents, zero acid-washed residue after extended storage, and natural colorlessness. Glassware stays unclouded even after repeat extractions, and product-packaging interactions never impart unwanted plasticizer signatures, as both product and container meet rigorous inertness checks.

    We’ve watched too many projects stumble from invisible process drift—trace metals, used drums, or micro-impurities. Our direct approach to manufacturing, investing in custom PTFE linings and all-fluoropolymer contact surfaces, ensures only true perfluoro-tert-butanol arrives at your dock. Many of our clients let us know they no longer triple-verify incoming drums through third-party labs, freeing up both hands and headspace.

    Reliability, not Rebadging

    As chemical manufacturers, the responsibility for purity, specification, and technical data doesn’t end at the gate. We maintain a program of ongoing in-process checks, periodically reviewing both retention samples and new lots for matching purity profiles. Whenever feedback triggers a deeper dive—say, one lab flags an unusual NMR peak—our teams jump directly into production notes, drawing from stored spectra and process logs.

    Some buyers ask why it’s worth challenging the “good enough” standard of generic product. In our experience, even minute impurity shifts compound quickly in today’s optimized automated labs. Both academic grants and industrial R&D budgets stretch further when getting the expected yield, rather than cleaning up after a marginal reagent or doubling analytical controls. Cost-of-quality for scientists stretches far beyond purchase price.

    Most specialty traders simply move whatever is on-hand, or blend batches to fit a paperwork-driven purity range. We commit directly to end-users, sidestepping mixed-source confusion by documenting traceability and meeting internal purity standards shaped by synthetic chemists, not commodity marketers. This is not just a slogan; faulty material risks our own uptime, as reclamation lines and on-spec blending both depend on rejecting questionable input at the outset.

    Supporting Technical Inquiry and Continuous Improvement

    Direct connection with users shapes better product. Whenever research groups share new data on challenging reactions, our development chemists collaborate to refine batch specifications or adjust distillation parameters. During the early 2010s, we introduced a high-purity PFTB line based directly on dialogue with surface science labs seeking zero-residual additives for nanocoating. Immediate QA cycles ensured only product matching their GC-MSMS criteria left our setting tanks. As more application notes accumulate, our flexibility speeds up, not down—batches pivot to R&D requests in weeks, not years.

    Longevity and field stability matter. Our internal shelf-life testing goes beyond basic freezing point checks; we store reserve samples and periodically verify for volatility change, color, and presence of trace byproducts forgettable by most distributors. These internal observations drive ongoing improvements in both packaging (using PTFE seals and containers) and lot management. Customers appreciate reordering the same grade six months or three years apart, regardless of shifting supply chains or ISO deadlines.

    Support doesn’t end on delivery. Technical staff routinely answer inquiries about solvent compatibility, unusual reaction outcomes, and instrument calibration. Many process managers let junior scientists reach out directly; we believe that transparent supplier–user dialogue actually lowers total cost by reducing confusion, guessing, or unsafe workarounds. Our lot-specific documentation often saves days of troubleshooting when chemists report unexpected outcomes linked to reagent stability.

    Environmental Handling and Responsible Shipping

    Producing high-purity PFTB brings with it substantial environmental responsibility. We design all fluorination campaigns with waste minimization as a primary goal, recycling unreacted feedstock and stripping fluorinated acid byproducts at the source. Process improvements, such as transitioning to closed-loop fluorine gas management, not only protect operators but also reduce downstream neutralization loads. Our effluent monitoring teams track discharge with real-time sensors, ensuring nothing leaves the gate above mandated limits—fluoropolymer recoveries hit target ranges without unchecked side products.

    Shipping direct from origin enhances compliance and accountability. Each drum of PFTB leaves with full material traceability embedded in our ERP, linking batch environment to outbound route. Shipping in cleanroom-sealed, inert-lined drums enables longer storage; customers in variable climates observe no degradation for over a year with proper handling. Many clients adopt smaller packaging for high-throughput bench use, relying on same-day support if unexpected questions arise.

    We invest heavily in operator training and accident-prevention systems. As regulations tighten worldwide on perfluoroalkyl substances, our internal policies already surpass standard reporting. No shipment leaves unchecked for residue, vapor leaks, or labeling compliance. Only by keeping control over every stage of production, QC, and shipment can we back our product’s integrity from origin to end user.

    Growing Together with End-Users

    Industry innovation depends on reliable building blocks. As direct manufacturers of Perfluoro-Tert-Butanol, we understand the pressure on research and production targets to hit both specification and cost. By focusing on core control—of chemistry, packaging, traceability, and customer feedback loops—we help research move forward, one clean batch at a time.

    We encourage open dialogue on new chemistries, refinements, and any roadblocks researchers hit with fluorinated alcohols. Recommending technical modifications, delivering lot-specific data, or fielding urgent questions becomes easier with that direct producer-user relationship. Whether customers need a single bulk drum or pilot-scale distribution across multiple divisions, we welcome practical feedback and share in the pride of advancing both science and safety.

    True reliability isn’t just about meeting a numbers target. It means delivering a known and trusted material, handling questions with candor, and improving every year. Perfluoro-Tert-Butanol, produced at the source and improved through user partnership, makes a difference where laboratory-scale innovation and industrial reliability meet.