|
HS Code |
657472 |
| Iupac Name | 1-Chloro-1,2,2,2-tetrafluoroethane |
| Chemical Formula | C2HClF4 |
| Molar Mass | 120.47 g/mol |
| Cas Number | 2837-89-0 |
| Appearance | Colorless gas |
| Density | 1.43 g/cm³ (liquid at 20°C) |
| Boiling Point | -6°C |
| Melting Point | -102°C |
| Solubility In Water | Low |
| Vapor Pressure | 3.145 atm (at 25°C) |
As an accredited Chlorotetrafluoroethane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Chlorotetrafluoroethane is packaged in a 25 kg steel cylinder with secure valve, clear hazard labeling, and product identification markings. |
| Shipping | Chlorotetrafluoroethane should be shipped in tightly sealed, clearly labeled cylinders or containers, designed for pressurized gases. Ensure the containers are upright and secured. Transport according to relevant regulations (e.g., DOT, IATA, IMDG), in well-ventilated vehicles, away from heat and ignition sources. Include proper hazard labels, documentation, and emergency response information. |
| Storage | Chlorotetrafluoroethane should be stored in tightly closed, clearly labeled containers in a cool, dry, and well-ventilated area, away from direct sunlight, ignition sources, and incompatible materials (such as strong oxidizers). Cylinders should be kept upright and secured to prevent tipping. Adequate ventilation is necessary to prevent accumulation of vapors. Storage areas must comply with local regulations for pressurized and refrigerated gases. |
Applications of Chlorotetrafluoroethane in Industrial ManufacturingAs a direct manufacturer, we supply high-purity chlorotetrafluoroethane to leading downstream sectors that utilize its specific physical and chemical properties in controlled industrial processes. Below are key application scenarios based on actual industry practice and regulatory environments. Each application summarizes relevant standards, formulation design, operational integration within production, and resulting categories of finished goods. 1. Refrigeration Equipment ManufacturingIndustrial refrigeration enterprises use chlorotetrafluoroethane in assembling low-temperature cooling units and precision laboratory chillers, favoring its stable thermal behavior in vapor-compression cycles and compatibility with selected lubricants and metals. Engineering and QC teams in these plants adjust the addition rate based on system charge volume, evaporator sizing, and final customer requirements for efficiency and environmental impact, always meeting chemical handling and end-use safety regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Electronics Cleaning Solvent ProductionThe electronics assembly sector blends chlorotetrafluoroethane for specialist cleaning formulations targeting delicate printed circuit boards and microelectromechanical systems. Its low surface tension and dielectric characteristics ensure residue-free performance during removal of fluxes, oils, and particulates in process-controlled cleaning bays, where trace contaminant thresholds are tightly regulated, and solvent recovery systems govern emissions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Polymer Foam Blowing Agent ProductionProducers of rigid and semi-rigid polymer foams utilize chlorotetrafluoroethane as a blowing agent, exploiting its controlled volatility to expand polyurethane or polystyrene resins during reaction molding. Technical departments monitor addition rates to achieve target foam density, insulation ratings, and cell structure, while ensuring product lines align with occupational health and environmental standards for halogenated agents. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Chemical Intermediate in Fluorinated Compound SynthesisFine chemical and pharmaceutical manufacturers incorporate chlorotetrafluoroethane as a controlled intermediate to introduce fluorine atoms in specialty synthesis steps. Complex multi-stage reactors leverage the raw material for site-selective fluorination or halogen-exchange pathways, supporting production of monomers, agrochemical precursors, and high-value specialty agents where traceability and complete mass-balance accounting through all process streams is mandatory. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Fire Suppression Systems (Halocarbon Blend Components)Professional fire protection equipment fabricators use chlorotetrafluoroethane as a blend component in gaseous clean agent systems, specifically for applications where rapid inerting and low toxicity thresholds are required to protect high-value electronics or archival assets. System engineers base formulation and charging on required extinguishing concentration curves, discharge pressure dynamics, and exposure toxicity guidelines, with emissions tightly tracked. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Chlorotetrafluoroethane prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Decades of hands-on production leave a mark on how a manufacturer approaches chemical solutions. Chlorotetrafluoroethane (CTFE) comes off the line with consistent characteristics when we stick close to every step in the process. The finished product delivers value as a result of tight attentiveness on the plant floor. By focusing on reaction conditions, measuring impurity profiles, and monitoring stability, producers like us offer a CTFE that proves itself batch after batch, even when supply chain and energy prices keep the pressure on.
We have learned to respect the subtleties of the molecular structure—C2ClF4. That single chlorine atom sets it apart among fluorocarbons. Real-world feedback from end users keeps us adjusting for purity, moisture, acidity, and volatile residue because even fractional contamination shows up under demanding conditions. Each model code for CTFE ties directly to actual working properties—usually denoted by the variant content or the intended use, such as high-purity lines for electronic etching, or standard production grades for polymerization. It's well-known within the industry that CTFE carries a boiling point near 3 °C, so specialized handling protocols in our plant have evolved to accommodate storage, transfer, and cylinder filling.
Chlorotetrafluoroethane changed the story in polymer production. As a key monomer for producing polychlorotrifluoroethylene (PCTFE), CTFE brings unmatched barrier characteristics and stability. Over the years, we've responded to requests for tighter particle parameters and stricter color requirements—these details start with the feedstock. Mistakes at the monomer step echo through the performance of the finished polymer. Our consistency comes from years of refining reaction initiators, purifying intermediate streams, and tailoring final processing to reduce color bodies and acid residues.
Customers return to CTFE for its reliability in demanding applications. Within our direct manufacturing experience, we see it requested for three main fields: specialty fluoropolymer manufacture, intermediate for fluorinated chemicals, and discrete use in specialty solvents. In membrane or film production, sheet quality and gas permeability reflect upstream purity, so plant-level oversight of CTFE pays dividends downstream. Producers in the electronics and cable industry specify it for insulation due to its low porosity and chemical inertness. When working with new partners, we skip generic checklists by sharing past data on acid numbers, trace chlorides, and feasible transport temperatures.
Having other hydrofluorocarbons on hand—such as tetrafluoroethylene (TFE) and hexafluoropropylene—has shown us where CTFE holds its own. Structurally, the presence of chlorine affects not only boiling range and reactivity, but also safety and regulation. CTFE displays lower flammability than TFE, making it a safer choice in plants concerned about ignition hazards. We’ve noticed that even subtle changes in feedstock composition tilt performance margins, especially in high-end fluoropolymer processing. Some competitors lean hard on generic blends, but our operation stays committed to one principal: keep all fractions in check. Impurities allowed in TFE or HFP often spell disaster in CTFE polymerizations, so we take extra steps with additional purification columns or modified distillation curves.
True scale production of CTFE requires rigorous controls beyond theoretical chemistry. We have spent years refining solvent selections for chlorination, and calibrating catalyst systems to optimize yield while containing by-products. Unwanted oligomers and residual acids threaten both the yield and the lifecycle of reactor components. Our maintenance routines call for frequent checks on corrosion and fouling at packing and transfer points. Specialized containment keeps CTFE vapor inside process lines—leakage not only cuts efficiency, but also heightens safety monitoring on the shop floor. Transferring CTFE for bottling or shipment uses compressors and pumps built with tested elastomers, since fluorocarbons challenge conventional gaskets and seals.
Operating as a chemical manufacturer brings responsibility for containment and emissions. CTFE received regulatory scrutiny for its contribution to ozone depletion potentials, so mitigation happens at multiple points throughout our process. Off-gases pass through scrubbing towers and catalytic converters, using chemistries tailored exactly for halogenated waste. Condensation traps and return systems capture product vapor to reclaim reusable quantities. Workers on our lines receive ongoing training about both exposure tracking and spill management. Continuous improvements in our environmental control plans often begin by reviewing last quarter’s leakage and incident logs. Experience tells us proactive controls, not just end-of-pipe fixes, matter most for protecting both workers and the surrounding community.
Direct manufacturers carry the responsibility to support safe logistics. With a boiling point at just above freezing, CTFE arrives and departs always under pressure or refrigerated. Our cylinders and bulk containers pass strict inspections for metal compatibility and pressure ratings with each cycle. Before dispatching outbound shipments, valve seats get tested, and gas tightness checklists are followed rigorously. Anyone handling incoming drums receives a walkthrough on both the MSDS and standard loading protocols. We don’t leave CTFE in marginal storage areas—dedicated containment and routine monitoring help keep product quality high and regulatory headaches at bay. Partnering only with trained carriers and providing them with clear emergency protocols reduces accident rates.
End users of CTFE demand little tolerance for error, especially as process technologies advance. Batches for sensitive PCTFE polymerization or as specialty intermediates benefit from trace documentation, ensuring every shipment can be traced back through our reactors and purification units. Many of our repeat customers rely on this transparency; they worked with us through trials on temperature cycles, blend recipes, and impurity reduction, and this collaboration delivers the data their own regulatory teams need. Systematic lab sampling throughout storage, filling, and shipping forms a feedback loop for ongoing process improvement.
Research and custom synthesis routines put a premium on reliability. CTFE serves as a building block for fluorinated crop protection agents, pharmaceutical intermediates, and high-stability specialty fluids. Chemists in these fields bring us detailed specifications, requiring not just a certain CTFE assay but a guarantee on trace side-products like 1,1,2,2-tetrafluoroethane or hexafluoropropylene. We keep up by feeding process analytics straight to our laboratory teams, who then forecast expected by-product ranges. Direct conversations with end users help tailor batch purifications to niche requirements, cutting lead times for made-to-order chemical runs.
Producing CTFE isn’t a simple matter of scaling up. The inherent reactivity and corrosiveness during production force ongoing investments in both equipment and staff know-how. We replace certain reactor linings more frequently than competitors working with less challenging molecules. Routine recalibration of sensors and periodic overhaul of stripping columns prove necessary because halogenated species can degrade equipment fast. Downtime from unscheduled maintenance or process interruptions costs both us and our customers, so robust preventive plans matter. Insights from daily operations often guide updates to batch protocols and chemistries, not just at the main production line but in associated recovery and neutralization systems.
Direct experience with partially fluorinated and perfluorinated products lets us offer practical comparisons. For example, compared to TFE or hexafluoropropylene, CTFE demonstrates improved handling safety and slightly higher chemical reactivity, so process engineers can optimize polymer structures for a narrower permeability range. Polymer manufacturers find CTFE imparts higher density and stability to end products. Where some applications tolerate minor moisture or acidity, high-purity CTFE requirements force us to triple-check our purification sequences before drum loading. In refrigerant or blowing agent fields, shifting regulations push buyers to molecules with lower environmental footprints; CTFE’s known ozone effects shape not just operational choices but long-term strategic planning around substitutes and emissions capture.
Long-term operation in chemical manufacturing means constant adaptation. Continued research feeds valuable technical solutions directly into our production lines. Collaborative projects with equipment manufacturers have produced more durable valves and pumps, able to survive the unique demands of CTFE. In partnerships with downstream users, our R&D teams evaluate how impurity levels influence both product lifespan and safety. Sometimes, off-spec material spurs process audits that reveal previously unknown interaction effects between CTFE vapors and insulation or lubricants—not every improvement shows up in published literature, but each contributes to a more stable supply for customers.
Plant-floor reality rarely matches the laboratory brochure. End users from major chemical companies and emerging specialty shops provide sharp feedback about minute impurities, variations in packaging, and unexpected changes in gas handling at their sites. Experience tells us that tweaking distillation profiles by even a few degrees changes the purity spectrum, so we tune our processes to fit both generic and highly specific needs. Our production teams invite process engineers from partner companies onsite, walking through our filling and sampling, so reliability extends from our tanks to their reactors. Documentation, transparency, and rapid response to deviation reports earn ongoing trust.
Reliable CTFE doesn't just happen. Behind every filled drum, there’s a record of operator training, maintenance histories, and quality records in both paper and digital format. Severe winter chills or hot summers both test our storage controls—fluctuations in ambient temperature drive strict monitoring for both container pressure and gas loss. We have learned to anticipate issues that some newer producers overlook: elastomer hardening, valve seat creep, or changes in detection thresholds for residual moisture are addressed before they can interfere with filling or shipment. Delivering repeat quality, whether for a multi-ton delivery or a series of sample bottles, draws on the entire manufacturing system staying proactive.
Worldwide regulations surrounding fluorinated organics keep evolving. Our operations team stays up to date on any new restrictions impacting CTFE production, transport, and use. Experience tells us not to rely only on what worked last year. We invest in continuous training for compliance teams and line workers alike, incorporate newer leak detection technologies, and adopt more effective scrubber catalysts and waste management protocols as they prove themselves. Product stewardship doesn’t end with what leaves our gate—ongoing conversations with downstream users and regulators help us forecast and respond as demand shifts, especially in sectors affected by environmental policy.
Over the years, CTFE helped define benchmark properties for specialty fluoropolymers and barrier materials. High-tech manufacturing, aerospace, electronics, and medical device suppliers count on known response at every processing step. We share manufacturing experience with longtime partners—meeting demand for innovations in coatings, composite films, and resilient structural components. The variety of applications grows as new formulations call for more specialized monomer feedstocks. Direct lines of communication with end users help us align both process timing and the precise specifications for each application.
Logistics improve each year through feedback from real-world loading docks. Large-batch users require dedicated onsite storage and specialized pumping equipment. Smaller users often need portable, pressure-rated containers ready for immediate hookup to their lines. We outfit technical support staff to help customers select the right connections, transfer lines, and monitoring instruments. Where compatible, we assist with vacuum lines, pressure relief protocols, and rapid connector swaps. Attention to user safety and practical troubleshooting, built from our own operational lessons, helps integrate CTFE into diverse manufacturing settings with minimal disruption.
Adoption of digital plant control has raised the bar throughout the chemical industry. In our own facilities, advanced process control systems combine real-time data from pressure, temperature, and purity sensors along each stage of CTFE manufacture. Operators catch minor deviations before they affect downstream supply. Rather than waiting for final assay results, in-stream monitoring flags potential issues within hours. Feedback from these systems guides targeted maintenance, improving uptime and keeping order fulfillment steady even during swings in demand or raw material availability.
Direct manufacturing drives us to anticipate global shipping hurdles. Border delays, hazardous materials documentation, and temperature-sensitive transit shape every bulk shipment plan. Export clients might need custom language on documents or certification to local environmental codes; we provide that as a matter of routine, not as an afterthought. Diversifying supply pathways and dedicated backup capacity have proven important—especially when unplanned events affect shipping lines or raw material sources. Sharing accurate lead times and proactive updates on scheduling help users maintain their own manufacturing pace.
Every aspect of working with chlorotetrafluoroethane, from synthesis to dispatch, benefits from the experience built on years of direct manufacturing. Safe, high-quality CTFE goes beyond lab analysis—it results from daily involvement with equipment, staff, logistics, and the entire value chain. True plant practice makes clear where real improvements come from: detailed oversight, responsiveness to customer demands, and ongoing attention to both safety and compliance. Reliable CTFE reflects the expertise of people who work with it every day, bringing each project—large or small—closer to success.