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Fluoroethane

    • Product Name Fluoroethane
    • Alias Ethyl fluoride
    • Einecs 200-866-1
    • 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
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    Specifications

    HS Code

    728398

    name Fluoroethane
    chemical_formula C2H5F
    molar_mass 48.06 g/mol
    CAS_number 353-36-6
    appearance Colorless gas
    boiling_point -37.7 °C
    melting_point -142 °C
    density 0.965 g/L (at 0 °C, 1 atm)
    solubility_in_water Slightly soluble
    flash_point -50 °C
    vapor_pressure 3,450 mmHg (at 20 °C)
    refractive_index 1.2582 (at 20 °C)
    autoignition_temperature 430 °C

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

    Packing & Storage
    Packing Fluoroethane is packaged in a 1-liter steel cylinder, clearly labeled with hazard warnings, product details, and secure valve closure.
    Shipping Fluoroethane should be shipped as a compressed, flammable gas in approved cylinders or pressure-rated containers. It must be handled according to regulations for hazardous materials, with adequate labeling and secure storage. Transport in well-ventilated vehicles, away from heat, sparks, or open flames, following UN number 2456 and relevant safety guidelines.
    Storage Fluoroethane should be stored in tightly sealed, properly labeled cylinders or pressure vessels in a cool, dry, well-ventilated area away from incompatible materials such as strong oxidizers. Protect containers from physical damage, heat sources, and direct sunlight. Storage areas must be equipped for handling flammable compressed gases and should follow all local regulations regarding hazardous substances.
    Application of Fluoroethane

    Applications of Fluoroethane in Industrial Manufacturing

    Fluoroethane serves as a specialized raw material across several advanced industries due to its physical and chemical properties. Our manufacturing experience ensures reliable supply and technical support for large-scale industrial users requiring precise performance and documented compliance at every step of their operation.

    1. Refrigerant Production: Component for Low Global Warming Potential Blends

    Industrial refrigerant manufacturers use fluoroethane as a key ingredient in new generation HFC blends. These proprietary refrigerant mixtures focus on reducing environmental impact while maintaining cooling efficiency and safe operation. Integration into the blending process requires continuous monitoring to ensure the correct vapor pressure and flammability control, meeting both safety legislation and regulatory environmental benchmarks established for HVAC and commercial refrigeration. Direct product handling guidance is mandatory during transfer and blending, and all additive systems require documentation throughout the production chain.

    Industry compliance standards

    • ASHRAE Standard 34 - Designation and Safety Classification of Refrigerants
    • EU F-Gas Regulation (517/2014)
    • AHRI Standard 700 - Specifications for Refrigerants
    • REACH Registration for European production and use

    Typical usage ratio

    • Ranging from 5% to 30% by weight within blend, depending on required thermodynamic properties and GWP targets of final refrigerant.

    Downstream process integration

    • Direct gas-phase blending in closed system with other HFC or HFO components
    • On-site composition analysis and purity validation prior to cylinder filling
    • Real-time leak detection and containment protocols enforced during blending

    Final product types

    • Refrigerant blends for commercial and domestic HVAC systems
    • Refrigeration fluids for cooled transport fleets
    • Supermarket display and cold storage refrigerant gas charges

    2. Pharmaceutical Chemical Synthesis: Intermediate in API Manufacturing

    API producers use fluoroethane as an alkylating agent when building complex fluorinated intermediates. In multi-step synthesis for certain antiarrhythmic, anesthetic, or imaging contrast agents, the inclusion of fluoroethane supports specific C-F bond formation, essential for pharmacokinetic performance in the finished ingredient. Chemical engineers must strictly control purity and residual moisture levels of each batch according to pharmacopoeia standards, and traceability remains mandatory via GMP documentation from input to final API delivery.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for APIs
    • USP, EP, JP monographs where applicable
    • FDA 21 CFR Part 211 for finished pharmaceuticals
    • ISO 9001 Quality Management System for chemical intermediates

    Typical usage ratio

    • Stoichiometric equivalents defined by route: typically 1.0–1.3 molar ratio relative to fluorinated substrate

    Downstream process integration

    • Charged into closed alkylation reactors under inert atmosphere
    • Residuals removed by distillation or extraction after reaction
    • Continuous in-process QC by GC to monitor residuals and conversion

    Final product types

    • Fluorinated pharmaceutical actives for anesthesia and arrhythmia management
    • Contrast imaging agents
    • Specialty chemical intermediates for drug development

    3. Electronics and Semiconductor Manufacturing: Chamber Cleaning Compound

    Leading-edge semiconductor fabs and display manufacturers employ fluoroethane as a chamber cleaning reagent within dry plasma cleaning systems. Its controlled decomposition under high-frequency plasma releases reactive fluorine species that remove process residues from CVD and etch reactors without attacking sensitive wafer materials. Strict controls govern input gas purity, moisture content, and metal ion contamination levels per device yield requirements and process qualification. Purge and abatement systems manage exhaust treatment according to international emissions standards.

    Industry compliance standards

    • SEMI C3 - Specifications for Gases Used in Electronics Manufacturing
    • IEC 62474 for material declaration
    • Clean Room ISO 14644-series certification
    • Local environmental permits for F-containing exhausts

    Typical usage ratio

    • 5%–20% volume in mixture with nitrogen or argon carrier gas during plasma clean cycles, tuned by wafer fab process recipe

    Downstream process integration

    • Direct supply from high-purity cylinder to gas panel
    • Automated MFC-controlled mixing before plasma delivery
    • Spent gases routed to F-abatement scrubbers post-chamber

    Final product types

    • Semiconductor wafers with reduced contaminant levels
    • Thin-film transistor arrays for flat panel display
    • MEMS sensor substrates

    4. Polymerization Agent: Modification of Fluoropolymer Properties

    Producers of specialty fluoropolymers incorporate fluoroethane as a co-monomer or chain transfer agent during emulsion or solution polymerization processes. Its participation in controlled radical formation enables adjustment of chain length and end-group distribution, directly influencing film flexibility, melting temperature, and chemical inertness of the final resin. On-site monitoring includes continuous gas-phase composition checks and real-time temperature control to manage polymer microstructure. All input lots require batch documentation and trace impurity analysis under ISO-certified standards.

    Industry compliance standards

    • ISO 9001:2015 Quality Management
    • RoHS Directive (2011/65/EU) for finished electronics materials
    • ASTM D2116 for fluoropolymer resin quality
    • REACH compliance for manufacturing and usage registration

    Typical usage ratio

    • From 0.5% to 5% by weight, adjustable to achieve required polymer molecular weight and thermal characteristics

    Downstream process integration

    • Metered gas introduction during polymer initiation stage
    • Real-time viscosity and MW monitoring during reaction
    • Post-polymerization degassing for removal of unreacted volatiles

    Final product types

    • Fluoropolymer films and coatings for electronics
    • High-performance wire insulation materials
    • Chemically stable membranes for filtration or battery separators
    Free Quote

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    Certification & Compliance
    More Introduction

    Fluoroethane: Direct from the Manufacturer

    Understanding Fluoroethane in Today’s Industry

    Fluoroethane, known by its chemical formula C2H5F, holds a steady position among organofluorine compounds in various industrial processes. Producing this gas in-house year after year, we get to witness firsthand how industries rely on its unique properties—especially its volatility and solubility—to solve real challenges. Many users approach us searching for fluorinated gases for prototyping and routine processes involving surface treatments and refrigerant research. In these cases, fluoroethane stands out for its manageable boiling point and good chemical compatibility.

    Through our years of batch production, we've seen growing attention around clean and controlled halogenation. Customers look for fluorinated intermediates that do not contribute to excessive ozone depletion or carry unnecessarily complex regulatory landscapes. Fluoroethane has a distinguishing profile. Its low flammability risk, when properly handled, makes it less intimidating than many higher fluorinated or chlorinated alternatives.

    Our Model and Production Expertise

    Our manufacturing experience allows us to offer fluoroethane at the highest attainable purity, commonly exceeding 99.5%. We understand just how much trace moisture and acidity levels can affect outcomes in both pharmaceutical syntheses and specialty coatings. Our reactors, purification columns, and analytical testing are built and maintained for reliable, contaminant-controlled outputs. The drum, cylinder, or custom vessel receives conditioning well before charging to prevent any risk of cross-contamination—what leaves our site reaches our customers ready for direct use.

    In daily operations, we're mindful of the need for every molecule to be up to spec. Each cylinder is filled using vacuum-transferred lines and inspected thoroughly according to GHS labeling. Gas chromatography and moisture analysis serve not as an afterthought, but as a routine task between every fill. We learned early that gaps in trace contaminant screening can come back as expensive recalls or failed synthesis for users. So, rather than cutting corners, we keep operators trained and audit equipment regularly.

    Key Applications: From Synthesis to Refrigerant Research

    Fluoroethane has become a staple for select synthetic routes in the pharmaceutical industry—especially for assembling tailored fluorinated intermediates. Researchers count on the compound’s manageable reactivity to introduce the fluoroalkyl group without skyrocketing the cost or safety concerns of more reactive halogen sources. In our experience, chemical engineers value fluoroethane’s balance: strong enough to functionalize, gentle enough to avoid mismatched side reactions.

    We often receive inquiries from universities developing new refrigerant blends with reduced global warming potential. While fluoroethane on its own does not see widespread use in large-volume commercial cooling, its chemical relatives do, and scientists continue to explore its properties for niche applications. The comparatively lower toxicity and the ease with which it can be blended make it a tool worth having for those at the research frontier.

    In addition to pharmaceuticals and refrigerant research, some of our electronics partners have integrated fluoroethane for specialty plasma etching or surface activation. In those cases, its volatility and low residue make cleanup straightforward, and its simple molecular structure keeps process recipes predictable—an underrated advantage in high-throughput production.

    Our direct relationships with users across these sectors enable us to follow each application’s challenges closely. We know that even minor changes in impurity levels can completely alter a lab’s outcome, especially for those working at the edge of detection sensitivity or with trial kilogram-scale batches. So, we keep feedback loops open and quickly adopt process modifications to improve downstream results.

    Fluoroethane vs. Other Fluorinated Gases

    Careful side-by-side work with difluoroethane, trifluoroethane, and non-fluorinated ethane has taught us that not all gases behave equally in practice. Compared with difluoroethane, for example, fluoroethane retains higher hydrogen content, which in some routes reduces unwanted over-fluorination. This gives synthetic chemists greater control during selective transformations. Chemically, those working with fluoroethane encounter fewer aggressive by-products, which can make purification less of a headache.

    When looking at carbon-fluorine gas choices, cost tends to scale with fluorine content, handling complexity, and shipping restrictions. Fluoroethane fits into a middle category: straightforward to store in high-pressure cylinders, stable under laboratory and pilot plant conditions, and not subject to the heavy regulatory overhead that CFCs or HCFCs face. This lets our logistics team keep orders moving smoothly to regulated labs, production facilities, or even mobile field service vans.

    We listen to feedback at every stage of our order lifecycle. Over the years, some clients using more heavily fluorinated gases switched to fluoroethane for small-batch functionalization and noticed sharper reaction control, as well as reduced need for post-reaction purification. The stability in long-term storage also means users don’t scramble to finish a cylinder as quickly, which can be crucial for busy labs running multiple projects.

    Challenges in Manufacturing and Handling

    Even with decades of experience, scaling up fluoroethane presents its own set of hands-on hurdles. We must closely monitor exothermic reactions that generate the gas, adjusting feed rates and chilling profiles to avoid escaping impurities or pressure surges. Our plant staff have learned to respect the subtleties of working with all hydrofluorocarbons—the right containment, valving, and leak checks make all the difference in reliable production.

    Shipping hazardous gases requires true discipline. We prepare every drum and package with secondary containment, track lot numbers meticulously, and coordinate with logistics partners trained specifically in compressed gas transport. Our process includes repeated documentation cross-checks. We see firsthand how a single oversight in handling or paperwork can delay delivery or cost valuable time for a client awaiting critical supplies.

    Internally, we always keep fresh eyes on regulatory updates from agencies monitoring GHG emissions, occupational safety, and trade restrictions. We actively design our processes to anticipate and exceed these standards; this is not just about compliance, but about ensuring every customer can take delivery without surprises or costly compliance headaches down the line.

    Quality Control and Transparency

    Our team manages everything from hydrofluorination to distillation on a single site. Full chain-of-custody tracking and local quality control mean that users never have to guess about the origin or the purity of their material. We store archive samples from each production lot and maintain lab records from raw material screening through final gas cylinder fill.

    We operate an on-site analytical laboratory with calibrated gas chromatographs and FTIR spectroscopy. Our colleagues in the lab test each fill for typical contaminants—chlorinated by-products, water, residual acids—as well as unexpected anomalies. Clear reports accompany every order, and any out-of-spec result triggers an immediate production review.

    We see transparency as non-negotiable. Surprises in reactivity profiles or purity statistics will only set users back and prompt costly delays. By working directly with users, we spot emerging trends and new analytical obstacles quickly, supporting researchers adapting to new requirements or evolving applications.

    Supporting the Next Generation of Applications

    Fluoroethane’s value grows as research pushes for new refrigerants, greener synthesis methods, and advanced coatings. Our R&D staff stay in direct contact with academic labs and research centers, offering onsite technical insight, small-batch trial production, and up-to-date product documentation. We also work closely with our suppliers to ensure sustainable sourcing of feedstocks, adapting to upward price or supply pressures with as little disruption as possible.

    We constantly invest in refining our equipment for cleaner, safer, and more efficient output. Cutbacks in energy use, waste minimization, and tank reconditioning all build towards meaningful reductions in our overall environmental footprint. Some might see fluoroethane as an old-school commodity, but with each process improvement and customer success story, we help push the boundaries of what this simple compound can do.

    Working with Customers: More Than Fulfillment

    Our approach remains rooted in practicality and accessibility. From the R&D bench to pilot-scale manufacture, we make sure users receive what works for them—not a stock answer, but tailored handling and technical support for their real scenarios. Each step, from production through delivery, is shaped by direct feedback and shared experience with the industries we serve.

    We invite technical customers to discuss application needs, troubleshooting, and even custom filling or packaging solutions. Our laboratory staff field inquiries about compatibility, reactivity under nonstandard conditions, and long-term storage questions. Sometimes, tweaks in packaging or direct delivery routes can resolve persistent headaches, saving our partners time and resources.

    Every improvement we make—every ounce of material that leaves our site—carries with it the weight of countless hours of technical discussion, rigorous validation, and the shared pride of seeing customers succeed. This is the foundation of our credibility and why so many partners choose to work directly with the manufacturer, not through layers of distribution or marketing intermediaries.

    Innovation and Sustainability

    The search for sustainable fluorine chemistry never ends. We routinely field requests for process improvements, regulatory updates, and even lifecycle analysis of our gas streams. Our plant continues to invest in advanced capture and recycling systems for process emissions, reducing both workplace exposure and our net output of greenhouse gases. Waste not eliminated at the source is treated and managed responsibly, with full third-party verification for sensitive streams.

    In our technical meetings, we discuss openly the realities and hurdles of shifting both base chemistry and energy sourcing to better align with climate commitments. Fluoroethane, while not a massive volume product, still offers a platform for lower-impact operations through mindful sourcing, reduced waste chemistry, and responsible disposal services for spent vessels.

    Looking back, even a single improvement in our fluorination pathway or process integration has saved countless kilograms of raw input or reduced solvent use over time. We take pride in keeping every process under the microscope for environmental progress—as much for our own people as for the customer community at large.

    Conclusion: The Manufacturer’s Perspective

    Behind every cylinder or drum of fluoroethane lies years of hard-won knowhow, persistent testing, and steady collaboration with users who rely on this compound for breakthrough research, specialty manufacturing, and innovation. We stay focused on transparency, hands-on support, and a relentless drive to deliver high-quality material, batch after batch. By working directly with us, users avoid the risk of unknown supply chains and can tap into solutions shaped by real-world experience.

    Fluoroethane’s technical merits only tell part of the story; the rest comes from the open channels we keep with those pushing chemical frontiers. We see opportunities emerging as regulation, sustainability, and technological advancements continue to shape our industry. Drawing from decades of direct practice, we meet those challenges not with templated responses but with meaningful, applied expertise—earned from the ground up, and always advancing.