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Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ)

    • Product Name Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ)
    • Alias ZB0237883
    • 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

    534922

    product_name Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ)
    component_1_cas 430-57-1
    component_2_cas 459-28-9
    molecular_formula_1 C3H6F2O
    molecular_formula_2 C3H6ClFO
    molar_mass_1 96.08 g/mol
    molar_mass_2 112.53 g/mol
    appearance Colorless liquid
    odor Characteristic alcohol-like odor
    boiling_point_1 92-95°C
    boiling_point_2 108-112°C
    density_approximate 1.18 g/cm3
    solubility_in_water Miscible
    storage_conditions Store in a cool, dry, well-ventilated area

    As an accredited Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle, screw cap, labeled with chemical names, hazard symbols, and 100g net weight; securely sealed for transit safety.
    Shipping The chemical mixture of 1,3-difluoropropan-2-ol (Ⅰ) and 1-chloro-3-fluoropropan-2-ol (Ⅱ) should be shipped in tightly sealed, clearly labeled containers. Ensure compliance with relevant hazardous material regulations, use protective packaging, and transport under temperature-controlled conditions to prevent leakage, exposure, or degradation during transit. Handle with appropriate safety precautions.
    Storage Store the mixture of 1,3-difluoropropan-2-ol (Ⅰ) and 1-chloro-3-fluoropropan-2-ol (Ⅱ) in a tightly sealed container under cool, dry, and well-ventilated conditions, away from sources of ignition, heat, and incompatible materials such as strong oxidizers or acids. Ensure proper chemical labeling and use appropriate secondary containment to prevent spills. Protect from direct sunlight and moisture.
    Application of Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ)

    Applications of Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ) in Industrial Manufacturing

    As a direct manufacturer of specialty halogenated alcohols, we supply mixtures of 1,3-difluoropropan-2-ol and 1-chloro-3-fluoropropan-2-ol for targeted industrial sectors with strict technical and regulatory requirements. Below, we present key downstream applications, each with detailed integration guidance and compliance references based on continuous feedback from our industrial end users.

    1. Pharmaceutical Intermediate Synthesis

    Major API producers utilize this fluorinated alcohol mix as a reactive intermediate for specific fluorine-containing active substances. The unique reactivity of both isomers enables selective alkylation and protection steps, especially for small-molecule drug candidates where controlled fluorination directly impacts pharmacokinetics. Integration into multistep synthesis demands high batch-to-batch reproducibility and clear traceability, strictly monitored by in-house QC labs and regulatory affairs teams.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • 21 CFR Part 211 (US FDA requirements)
    • EMA Guidelines on the quality of chemical APIs
    • European Pharmacopoeia (Ph. Eur.) general monographs for fluorinated derivatives

    Typical usage ratio

    • 2–10% by molar quantity in the target reaction sequence, adjusted according to stoichiometric demand in fluorination or alkylation step, often optimized per molecule scaffold

    Downstream process integration

    • Dosed after initial condensation or amidation step, often under inert atmosphere in stainless reactors; closely monitored with in-process GC/HPLC for trace fluorine mapping; full traceability documentation required

    Final product types

    • Fluorinated small-molecule APIs for oncology and CNS therapeutics
    • Building blocks for agrochemical actives
    • Reference standards for pharmacopoeial testing
    • Research-only intermediates for development pipelines

    2. Agrochemical Intermediate Production

    Global crop protection manufacturers use this mixture to introduce halogenated propanol moieties into preformulated agrochemical skeletons. The unique molecular design enables precise fluorine or chlorine incorporation without toxic side-products, supporting novel modes of action in herbicides and fungicides. Industrial-scale plants emphasize supply consistency, efficient conversion, and minimized environmental footprint, matching REACH and local environmental directives during scale-up and registration.

    Industry compliance standards

    • EU REACH Annex VII–X for intermediates
    • ISO 9001:2015 for production process quality management
    • EPA FIFRA registration guidance (for US market-bound products)
    • China Pesticide Registration Requirements (ICAMA)

    Typical usage ratio

    • 3–7% by total reaction mass, optimized through pilot batch experiments to maximize halogen incorporation while minimizing residue levels in final technical concentrate

    Downstream process integration

    • Introduced at 2nd or 3rd synthesis stage within glass-lined reactors; reaction kinetics monitored by inline FTIR; continuous removal of by-product salts via phase separation; effluent streams treated per local regulations

    Final product types

    • Halogenated herbicide technicals
    • Fungicidal actives with improved rainfastness
    • Seed treatment intermediates
    • Formulated crop protection products for major regulatory markets

    3. Advanced Fluorinated Polymer Modification

    Producers of performance fluoropolymers and specialty resins incorporate this mixture for post-polymerization side-chain modification and to fine-tune surface energy. By introducing selective halogen substitutions, manufacturers improve weathering resistance, increase chemical inertness, and achieve controlled dielectric profiles for high-frequency wiring insulation and membranes. Quality teams demand high input purity and detailed incoming inspection records to prevent batch variability in extrusion and compounding processes.

    Industry compliance standards

    • ASTM D5630 for fluoropolymers composition
    • ISO 9001/14001 integrated management systems
    • RoHS Directive (EU 2011/65/EU) for electronic materials
    • UL 94 rating (for flame retardancy in electrical applications)

    Typical usage ratio

    • 1–5% by weight relative to base polymer, depending on required final physical properties and per engineer's compounding protocol; usage adjusted to achieve target surface tension and chain-end functionalization

    Downstream process integration

    • Introduced during reactive extrusion or polymer blending; homogeneity ensured with precise feeding systems; end-use controls conducted on film or molded part substrates; waste streams handled according to ISO 14001

    Final product types

    • High-performance fluoropolymer membranes (e.g., fuel cells, filtration)
    • Wiring insulation with low dielectric loss
    • Weather-resistant architectural coatings
    • Industrial adhesive formulations

    4. Specialty Coating and Adhesive Additive

    Industrial coatings and adhesive manufacturers use this mixture to impart specific wetting, adhesion, and chemical barrier properties to advanced composite and metal substrates. The presence of both difluorinated and chlorofluorinated species allows fine-tuning of surface interaction profiles, critical in aerospace, electronics, and automotive assemblies. Quality assurance protocols focus on clear documentation of additive grade conformity and tracking of each production lot within ISO and sectoral frameworks.

    Industry compliance standards

    • ISO 12944 for anti-corrosive coatings
    • REACH, Title IV for specialty mixture registration
    • ASTM D1002 for adhesive bond strength in industry
    • IATF 16949 for automotive parts suppliers

    Typical usage ratio

    • 0.5–2.5% by total solids in binder formulations, tuned for intended barrier or adhesion endpoint; adjusted following pilot line results and target specification sheets from OEMs

    Downstream process integration

    • Metered in-line with main binder at dispersion stage; monitored for uniformity by QC labs through fluorine content testing; stored in dedicated, segregated tanks to avoid cross-contamination with commodity additives

    Final product types

    • Corrosion-protective coatings for industrial and marine environments
    • Electronics-grade conformal coatings
    • High-adhesion structural epoxy adhesives
    • Automotive bonding solutions for exterior trim systems

    5. Electronic Materials Processing

    Manufacturers of precision semiconductor and printed circuit board (PCB) chemicals incorporate this blend during etching, cleaning, or dielectric layer modification. Its halogenated structure delivers controlled reactivity for surface treatment steps where traditional non-fluorinated agents underperform. Batch control remains stringent, especially for low ionic contamination, supporting cleanroom manufacturing for high reliability applications in consumer and defense electronics.

    Industry compliance standards

    • SEMI C3 (semiconductor chemical purity)
    • IPC-4101 for base materials (PCBs)
    • J-STD-001 (electronics assembly process control)
    • IEC 61340 static control for ESD-sensitive devices

    Typical usage ratio

    • 0.1–1.2% in etching or surface modification baths, calibrated by QC labs through pilot runs to achieve minimum residue threshold and desired surface topography

    Downstream process integration

    • Blended into aqueous or solvent etching baths after initial pre-clean; inline contamination monitoring performed using ICP-MS or ion chromatography; traceability linked to wafer or board lot number per manufacturing execution system

    Final product types

    • Processed semiconductor wafers for microelectronics
    • Surface treated FR4/PI laminates for PCBs
    • Advanced dielectric films in multilayer chip packages
    • Cleaned and etched copper patterns for high-frequency circuits
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    Certification & Compliance
    More Introduction

    Introducing Our Mixture Of 1,3-Difluoropropan-2-Ol (Ⅰ) And 1-Chloro-3-Fluoropropan-2-Ol (Ⅱ)

    Delivering Consistency and Performance in Precision Chemistry

    Working here on the manufacturing floor, I’ve spent over two decades watching the way specialty intermediates have shaped countless industries. Our new compound blend—mixing 1,3-difluoropropan-2-ol (Ⅰ) with 1-chloro-3-fluoropropan-2-ol (Ⅱ)—rises directly out of this tradition: meeting chemists' requirements for purity, consistency, and reliability in challenging syntheses. This is about more than numbers or batch yield; it’s about ensuring your research project or commercial production never stalls over the details.

    We designed this blend after years of requests from pharmaceutical scientists and fine chemical engineers. Both components originate from our proprietary halogenation sequence, drawing on controlled fluorination and chlorination technology that’s been refined by our own engineers. Every batch delivered reflects our commitment to minimizing byproducts and maximizing material integrity. It’s easy to lose sight of how challenging the halogenation process can get until you’re in the reactor room, monitoring each phase transition, continuously sampling to confirm composition.

    Material Features Rooted in Hands-On Manufacturing

    For the chemical industry, nuances in handling halogenated alcohols mean risk or reward. Both 1,3-difluoropropan-2-ol (Ⅰ) and 1-chloro-3-fluoropropan-2-ol (Ⅱ) display unique reactivity and solubility profiles, and their behavior in downstream applications changes depending on ratios, impurities, and even ambient storage conditions. Our blend addresses these real-world variables. We focus on achieving a precise balance between the two alcohols—supporting customers who need strict performance standards.

    So why do our clients routinely specify this mixture over separate single-component products? Over the years, process engineers have taught us that some intermediate blends boost process yields, streamline purification, and cut down on the need for multiple raw material sources. Down the production line, this translates to fewer headaches over waste or isolating unwanted byproducts, which means more reliable batch records.

    Our manufacturing setup leverages controlled halogen feeders, heat exchangers, and in-line analytical instrumentation. Lever rule calculations guide every shift changeover. Even subtle fluctuations in halide supply during liquid-phase functionalization can affect the downstream application of these alcohols—especially in active pharmaceutical ingredient development or special-purpose agrochemical synthesis. Early in the formulation of this mixture, our team worked hands-on with pilot quantities, paying attention to stabilizer load, residual acidity, and transport conditions. Today, those lessons let us maintain exceptional consistency from drum to drum, month after month.

    Applications Rooted in Actual Industry Use

    There’s no substitute for feedback from real users. Our teams have visited production plants and research labs: Upstream, formulators report success integrating this mixture as a precursor to complex ring systems—reacting the alcohol blend with epoxidizing agents or transforming it into fluorinated Grignard intermediates. We’ve seen its role as a critical coupling partner for nitrogen and oxygen heterocycles in pharma, and as a flexible source of fluorine/chlorine moieties for next-generation crop protection.

    In one example, a major veterinary pharma producer found the mixture supported reliable glycidic ether formation under mild base, something their process chemistry team struggled to control with single-component stocks from various traders. In another, a fine chemical division used our blend to build up advanced intermediates for fluorinated aryl ether herbicides, reporting improvements in both selectivity and separation efficiency. Our product’s reputation has grown not because of flashy marketing but direct word-of-mouth between working chemists.

    The presence of both dihalogenated alcohols in a single mixture reduces raw material switching and inventory needs. This point often gets overlooked in management meetings, but seasoned plant technicians know production delays happen when you need to recalibrate reactors for different feedstocks. Our approach aligns with robust planning and reduced downtime, especially where seamless batch runs make a difference over a business quarter.

    Key Chemical and Physical Aspects—Drawing from Our Daily Work

    Complexity in this product doesn’t just show up in the lab; it starts in the plant, with careful control over every parameter. 1,3-difluoropropan-2-ol (Ⅰ) offers greater electron-withdrawing effect than its mono-fluoro-chloro counterpart, supporting more aggressive nucleophilic substitutions and oxidation steps. 1-chloro-3-fluoropropan-2-ol (Ⅱ), on the other hand, often allows for milder, more selective reactions due to the chlorine’s lower reactivity in certain functionalizations.

    During development, our analytical chemists run GC-MS, NMR, and titration checks directly at multiple points across each batch—direct experience has taught us trace halide ion contamination, unstable byproducts, or even micro-level moisture can tip a whole project off course. Each shipment is backed by analytical records, so chemists can correlate process outcomes with our reported specifications. That said, our real emphasis stays on physical properties that set our blend apart: consistent boiling point range that supports fractional distillation, tightly controlled moisture, and a low fusion point to ease transport and storage in varied climates.

    Users will notice these details translate into less gelling, easier mixing, and greater handling safety compared to many third-party-supplied single halogenated propanol products, where greater variability creeps in as a result of re-bulking or repackaging. We take pride in the integrity of our own labeling and closure systems; even small issues like cap venting or drum color have been refined through decades of feedback from plant partners.

    Why This Blend Stands Apart

    Every batch outcome here reflects not just our technical knowledge but a culture rooted in continuous improvement. In practice, blended halogenated propanols often outperform their pure analogs in multi-step organic synthesis. We’ve learned firsthand that subtle product improvements—ranging from minimized volatility loss at ambient temperatures, to better stabilization during long-term storage—save clients real time and money. We’ve documented how these performance gains play out: less downtime during downstream processing, improved product throughput, and fewer customer service calls related to premature aging or phase separation.

    Differences from “standard” single-propanol supplies stretch far beyond what a table of numbers can reveal. For instance, while both single-halogen alcohols exist as specialty items on global trader lists, batch-to-batch consistency is rarely as high from multi-source pipelines as the blend we supply from our site. Over the years, clients who’d struggled with separation during downstream reactions, or who’d spent extra resources managing secondary waste, turned to our blend for its greater reliability. There is no substitute for a hands-on approach to product stewardship: our production engineers constantly audit process parameters and raw material supply to preempt problems that traders and distributors usually miss.

    From a sustainability point of view, our continuous blend production yields less chemical waste and lowers the risk associated with halogenated solvent disposal. We recover and reuse a significant fraction of halogen feedstock in a closed-loop system, minimizing our environmental impact. This matters to our downstream partners, especially those facing stricter regional or client-driven sustainability targets.

    Meeting Real-World Challenges with Proven Experience

    In the early days, trial batches often flagged transportation issues—temperature fluctuations can trigger crystallization or vapor pressure build-up. Over time, we modified packaging specs and adjusted stabilizer levels; many lessons came through hands-on shipping runs, riding along regional hauls to see how product integrity held up under real-world conditions. These experiences helped us ship with confidence, earning the trust of chemical buyers who remember every failed delivery from the past.

    Regulatory compliance rarely follows a check-the-box exercise, especially for compounds featuring both fluorine and chlorine components. Our compliance and quality assurance staff serve as direct liaisons to clients, updating protocols as international and national rules shift. For customers producing downstream regulated compounds—from active pharmaceutical ingredients to regulated crop chemicals—we supply supporting documentation and quality history.

    This approach—planning, production, documentation, and delivery—lets us maintain strict adherence to safety and performance standards without sacrificing transparency. Many competitors sell on margin, often hiding behind intermediary stockhouses or relabelers. We engage every step, from raw feed selection (our supply partners have been with us for years, and we still test every incoming lot), to dispatch, to detailed feedback gathering after every shipment.

    Supporting Our Industry Partners at Every Step

    Downstream success depends on a manufacturer’s willingness to listen and adapt. Early on, requests from process chemists led us to tighten residual halide specifications, tweak batch sizes for smaller R&D runs, and identify optimal packaging for air-sensitive blends. Today, we support our partners with technical guidance based on field-tested experience—not just textbook recommendations. Sometimes, this means collaborating directly with customer R&D teams, running joint process trials at our facility, or walking through unexpected results side by side.

    Take a recent case: a specialty synthesis group struggled with excess byproduct buildup during a critical etherification step. We sent technical specialists who ran trial reactions using fresh product from our line, analyzed failed batch residue, and demonstrated how adjusting the mixture composition by just a few percent solved the issue. Knowledge like this comes from years spent both running plants and troubleshooting in labs, and it’s part of why our partners see us as collaborators, not just suppliers.

    It’s one reason our product runs in everything from kilogram-scale pilot processes to multi-ton per month productions. Consistency lets engineers run longer campaigns, with fewer interruptions, which makes life easier not just for chemists but everyone up and down the value chain.

    Potential Challenges and Our Commitment to Solutions

    No chemical product is free from hurdles. Halogenated propanols, especially those combining fluorine and chlorine elements, face ongoing regulatory scrutiny and require proper stewardship. As tighter restrictions develop, we proactively review all material pathways—from raw material acquisition to final waste management. We in-house treat most waste, constantly innovating new scrubbing methods and solvent recovery techniques. We’ve even invested in third-party audits and onsite inspection to keep our practices sharp.

    The technical side presents its own set of puzzles. For facilities working with outdated purification systems, handling mixed halogenated alcohols means paying attention to venting, storage, and compatibility with gaskets or seals. Many of our plant clients benefit from consulting directly with our engineers before adopting a new blend; we’re always available to assist with system upgrades, compatible solvent selection, and hazard control plans. Our on-site training programs have become a way to share both experience and manufacturer-specific tips, ensuring safer, smoother adoption on every production scale.

    We recognize that trace impurities—moisture, halide ions, or byproducts—can be recipe-wreckers, which is why we constantly refine filtration and drying protocols. Problems in a chemist’s results often trace back to subtle shifts at our end, and we view it as our responsibility to troubleshoot swiftly and transparently. A feedback loop with our clients means not just selling a blend, but helping ensure every ounce performs predictably under their conditions.

    Future Directions—Backed By Real Investment in Innovation

    The chemical landscape shifts quickly, as requirements tighten for both product composition and environmental safety. We channel feedback from customers into R&D spending, often trialing new stabilization chemistry or protective packaging. Recently, we piloted an inert-atmosphere filling line, minimizing product exposure to moisture and oxygen—an upgrade that arose from direct reports of end-use stability concerns. These factory-level investments pay dividends for users striving to meet stricter pharmaceutical or fine chemical guidelines.

    We look beyond manufacturing as usual: our laboratory scientists spend time prototyping fresh joint solvent systems for use with our blend, offering options for those with emerging applications, such as green chemistry initiatives or specialty biocatalysis. Each innovation comes with real-world data behind it, not guesswork. For example, our solvent compatibility charts come straight from replicated pilot plant runs, so purchasing managers and bench chemists can reference up-to-date, practical insights.

    Our Role as Manufacturer—Built on Trust and Technical Depth

    Manufacturing isn’t just about meeting the spec and shipping fast. It’s about forging partnerships through reliable supply, technical support, and openness to solving new process problems together. Our blend continues to evolve only because we’re close to the work: active in the plant, on the phone with users, and present during troubleshooting calls. That boots-on-the-ground experience, spanning decades and multiple process generations, makes a real difference when someone’s project outcome rides on the consistency and purity of their starting materials.

    In a landscape filled with intermediaries and generic suppliers, we believe the knowledge and responsiveness of an actual manufacturer still matters. Each batch of our 1,3-difluoropropan-2-ol (Ⅰ) and 1-chloro-3-fluoropropan-2-ol (Ⅱ) blend leaves our plant with not just a certificate but the backing of an experienced, invested team ready to address both today’s needs and tomorrow’s challenges. Working directly with customers, we continue improving our products, one shipment at a time.