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HS Code |
574624 |
| Chemicalname | Hexafluoro-2,2,3,3-Tetrachlorobutane |
| Casnumber | 375-45-1 |
| Molecularformula | C4Cl4F6 |
| Molarmass | 317.84 g/mol |
| Appearance | Colorless liquid |
| Boilingpoint | 100-102 °C |
| Meltingpoint | -43 °C |
| Density | 1.784 g/cm³ |
| Refractiveindex | 1.359 |
| Solubilityinwater | Insoluble |
| Vaporpressure | 48 mmHg at 25 °C |
As an accredited Hexafluoro-2,2,3,3-Tetrachlorobutane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500 mL amber glass bottle with tight-seal cap, labeled “Hexafluoro-2,2,3,3-Tetrachlorobutane,” hazard symbols, lot and expiry information. |
| Shipping | Hexafluoro-2,2,3,3-Tetrachlorobutane is shipped as a hazardous chemical under strict regulations. It is packaged in approved, tightly sealed containers with proper labeling, and transported according to UN and DOT guidelines. Necessary hazard communication, including shipping papers and safety data sheets, must accompany the shipment to ensure safe handling and compliance. |
| Storage | Hexafluoro-2,2,3,3-tetrachlorobutane should be stored in tightly sealed containers, away from moisture, heat, and sources of ignition. Store in a cool, dry, well-ventilated area, preferably in a chemical fume hood. Keep away from incompatible materials such as strong oxidizing agents. Properly label all containers and follow local regulations for hazardous chemical storage to ensure safety. |
Applications of Hexafluoro-2,2,3,3-Tetrachlorobutane in Industrial ManufacturingHexafluoro-2,2,3,3-Tetrachlorobutane supports advanced production in several specialized industrial sectors. Our manufacturing customers integrate this material to achieve specific environmental, chemical, or physical outcomes, ensuring product stability and regulatory compliance in high-value downstream goods. Below are key application areas verified by our plant experience and customer processes. 1. Electronic Fluorochemical Solvent FormulationsThis compound acts as a carrier and developer solvent in the manufacture of photolithography chemicals for semiconductor and display fabrication lines. Electronics factories use it where ultra-low residue, high oxidative stability, and compatibility with photoresist polymers is critical to the yield of advanced microcircuit substrates. Strict trace impurity control applies, and the raw material feeds directly into developer or rinse solution blending reactors. Industry compliance standards
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2. Refrigerant Blending in Low-GWP Speciality ApplicationsThe molecule serves as a blend component in niche low global warming potential (GWP) refrigerants for environmental chambers and select heat-transfer systems, especially where legacy CFC or HCFC alternatives cannot meet technical requirements. Its highly specific vapor pressure and stability enable exact boiling point adjustment when blended with fluorocarbons or hydrocarbons. It is introduced in controlled-phase batch processes within downstream refrigerant compounding plants. Industry compliance standards
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3. Pharmaceutical Intermediate and Synthetic Route SolventChemical synthesis groups select this material in multi-step pharmaceutical manufacturing, especially for nucleoside, peptide, or specialty API intermediates that require strong halogen content and selective solvating properties. Regulation-bound QC protocols demand clear tracking of input, reprocessing, and solvent recovery. The compound is piped to reflux, extraction, or crystallization vessels within validated GMP lines. Industry compliance standards
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4. Fluorinated Polymer Processing AidPolymer plants use hexafluoro-2,2,3,3-tetrachlorobutane to modify melt flow viscosity and chain termination in the synthesis of select high-performance, halogen-rich polymers. The chemical enters batch or continuous polymerization systems, enabling precise control over chain length and side group architecture required in advanced plastics, wire insulation, and gasketing products. Thorough dehydrohalogenation and solvent stripping occur downstream. Industry compliance standards
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5. Analytical Standard Preparation for Environmental TestingReference laboratories employ this chemical as a matrix and dilution solvent in certified standard calibrators for halogenated organic compound analysis, including GC-MS and HPLC quantifications. Strict compliance protocols govern purity, storage, and handling, minimizing contamination risks. The raw material is accurately dispensed into volumetric flasks or ampoules during reference mix production. Industry compliance standards
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Hexafluoro-2,2,3,3-tetrachlorobutane has carved out its place as a uniquely indispensable specialty chemical in advanced industries. With a reputation for reliability in complex applications, it delivers more than any superficial description might suggest. Achieving genuine purity and tight specifications in every batch does not happen by chance. Anyone working directly with this compound at the manufacturing level knows the fine points of its production and the difference those make to end users.
We manufacture hexafluoro-2,2,3,3-tetrachlorobutane from the ground up, overseeing the entire synthesis pathway from raw fluorine and chlorine feedstocks. Control over the reaction conditions directly affects the final product’s color, boiling point, and acidity. For customers who require high-precision semiconductors or specialty coatings, even trace contaminants affect downstream performance. Every vessel, seal, and process parameter comes under scrutiny during production because the smallest variable can change the purity profile. Decades of hands-on improvements and real-world feedback have led us to develop proprietary filtration and purification steps that remove hydrolyzable and metal impurities, which are often overlooked by bulk producers.
We routinely monitor and document every batch with gas chromatography and halide analysis for the smallest outliers. We’ve learned the importance of tightly controlled storage to prevent background contamination—both from atmospheric moisture and from packaging residues. We never allow product in contact with metal surfaces that can contribute unwanted ions or particulates. In direct discussions with customers, purity requirements sometimes seem like overkill, but in our experience, the cost savings in their application processes pays dividends.
We have developed several models of hexafluoro-2,2,3,3-tetrachlorobutane with targeted impurity levels and tailored packaging to support everything from research-scale syntheses to full industrial operations. These include high-purity grades, technical grades, and custom-blended forms for special reactivity or storage profiles. For microelectronic uses, water and acid impurities must remain below strict limits; otherwise the functionality of sensitive etching or vapor deposition steps degrades. We established our high-purity variant with moisture and total acid numbers kept under 10 ppm, not just because it looks impressive, but because repeated customer runs in the 1990s revealed batch failures whenever those limits were missed.
For specialty coatings, different parameters apply. Customers using plasma or vapor deposition appreciate our low-residue, non-corrosive blends, proven through long-term stability trials. Bulk users in industrial refrigerant development tend to prioritize consistency in physical properties—density, volatility, and material compatibility. Some buyers want their product delivered under inert gas, especially where even oxygen traces pose risks to product integrity or subsequent reactions. We offer this on request and document each fill and purge cycle through a chain of custody that includes in-house and third-party validation.
Customers in microelectronics have pressed hexafluoro-2,2,3,3-tetrachlorobutane into service as a low-residue intermediate for advanced etching profiles and dielectric deposition. Here, reliability comes from more than just chemical stability; it grows out of strong supplier relationships and consistent process integration. On the shop floor, line stoppages due to out-of-bounds impurity levels aren’t just hypothetical—they represent lost weeks, wasted materials, and missed product launch dates. The same chemical has shown its worth in precision coatings, often as a component that resists breakdown under harsh UV and thermal stress.
In refrigerant systems, the molecular structure of hexafluoro-2,2,3,3-tetrachlorobutane offers remarkable stability. The compound delivers a balance of low flammability, high dielectric strength, and resistance to breakdown. Research teams and industrial users alike value this molecule both for its effectiveness in test environments and for its reliability in full-scale systems. Over many years, we have seen this product enable incremental gains in efficiency, safety, and reduced maintenance—often quietly, because end-users only notice the chemistry when something goes wrong.
Plenty of traders and brokers offer halogenated butanes, but the consistency and performance profile of each batch varies widely. We have seen—or been called in to investigate—incidents in which lower-grade alternatives caused critical failures. Decomposition, unexpected reactivity, or out-of-spec melting points can easily wipe out sensitive instrument lines, require emergency shutdowns, and create safety hazards. Our control over the entire supply chain, from raw material procurement to finished product, means customers can trust that each lot matches the label.
Competitor samples sometimes claim similar purity, but storage or transit in non-inert packaging introduces trace moisture or oxygen. These contaminants aren’t always visible or testable during a quick inspection. Only repeated feedback, batch testing, and application-specific failures demonstrate the difference. Our packaging and logistics protocols went through years of trial and error, including direct input from semiconductor and specialty chemical partners. Vacuum sealing, triple-rinsed containers, and oxygen-free transfer all come standard because every step preserves product integrity.
Working directly as a manufacturer brings responsibility for more than just meeting cost or performance targets. Safe handling and long-term environmental responsibilities mean we dedicate in-house personnel to compliance with regulatory, occupational, and environmental norms. Hexafluoro-2,2,3,3-tetrachlorobutane carries particular requirements regarding worker exposure, containment of spills, and long-term storage. We don’t cut corners on secondary containment, fume extraction, or waste treatment, investing in closed-loop systems as the plant’s daily routine.
We track and manage compliance with chemical registration and reporting protocols worldwide. These requirements sometimes frustrate users and small-scale buyers, but they also protect people and property. Our years as a source manufacturer have shown us that product quality often relates directly to process safety. Where some resellers introduce uncontrolled cross-contamination by repackaging, our control ensures each drum or cylinder meets regulatory limits before it leaves the site.
Staying in close contact with research labs and process engineers gives us feedback impossible to gain from lab analysis alone. Users of hexafluoro-2,2,3,3-tetrachlorobutane often pioneer new approaches in etching, cleaning, or novel fluoropolymer synthesis. We have established direct support teams that regularly troubleshoot application failures and help fine-tune both handling and process integration. One recurring lesson: chemical performance in real-world settings frequently differs from expectations set by the academic literature. Tiny purity shifts, atmospheric exposure during transfer, or unseen container residues create issues from pattern defects in chips to failed catalytic tests.
We respond by adapting specification sheets, offering consultation on in-line filtration, and working with equipment makers to develop best practices for use and storage. These relationships often lead to new product variants, driven by operational needs rather than theoretical “shoulds.” We’ve shared techniques for integrating our material into closed-loop systems, delivered technical seminars, and kept an open line to process development teams who push beyond textbook uses. That back-and-forth grows our own expertise and creates value both for us and for those who depend on our chemistry.
No product or process remains perfect. From our earliest production runs to today’s high-volume batches, we have watched our approach evolve in response to actual data and customer requirements. Sometimes anticipated improvements do not translate into better outcomes; trial and error—supported by robust metrics and customer experience—exposes what really matters. This is the place where our experience as a direct manufacturer, not a reseller, comes into play.
We track rejection rates, impurity profiles, customer support records, and even anecdotal feedback from line engineers. These inform incremental updates, whether that means changing a purification step, upgrading to new reactor materials, or overhauling packaging standards. Over time, this discipline produces a far more reliable product and gives users confidence to scale their own operations. We never assume today’s standard is tomorrow’s solution—new applications and tighter tolerances continuously shift the definition of quality.
Many users research halogenated butanes and quickly realize not all offerings are equivalent in real-world performance. A lower list price doesn’t always mean lower total cost, especially after factoring in risk to downstream systems. Results from a specification sheet don’t capture how a batch operates in the user’s environment—particularly where device yields, layer thickness, or cleaning consistency come under tight scrutiny. We frequently advise procurement and R&D teams to request detailed recent batch analyses and to discuss their specific application context before placing large-volume orders.
Open communication around critical parameters—moisture, acidity, residual metals, and packaging environment—creates smoother project rollouts. We encourage direct dialogue with our manufacturing and technical teams to align product grades with actual use conditions. Where special requirements arise, we can produce tailored specifications and offer advice based on hundreds of successes and lessons learned. Our experience as both manufacturer and day-to-day process manager shapes every recommendation we share.
Industry needs evolve and technical requirements tighten. Hexafluoro-2,2,3,3-tetrachlorobutane continues to play a key role in fields ranging from semiconductor miniaturization to advanced refrigerant chemistry. As a manufacturer, we remain committed to direct feedback loops with those who use our chemicals. Process improvement doesn’t happen in isolation. By staying hands-on, keeping our own production lines transparent, and listening directly to end users, we believe the next generation of specialized chemicals will keep advancing both reliability and performance.
Manufacturing hexafluoro-2,2,3,3-tetrachlorobutane is not just an exercise in chemistry. True quality results from a systemic approach—from careful feedstock selection through batch monitoring and customer feedback. Having a direct line from the production floor to the customer’s site ensures every challenge gets addressed promptly and every success gets documented for the next cycle. This discipline drives both technical excellence and sustainable growth, for us and for those who depend on the chemistry every day.
Few things matter more in specialty chemical production than real-world reliability. Customers trust that our hexafluoro-2,2,3,3-tetrachlorobutane keeps their systems running, their projects on schedule, and their people safe. Failures cost more than lost batches; they erode confidence, waste time, and create unplanned hazards. Over many years, our commitment as a source manufacturer has driven us to build, test, and refine every stage of the production process until we can stand behind every drum and cylinder that leaves our site.
As technology advances and standards shift, we keep pace through direct engagement—refusing to leave product quality to chance or shortcuts. We know from experience that every improvement, every adaptation, every extra safety step, matters somewhere down the line. The result is not just better product for our customers but deeper trust throughout the entire supply chain. Hexafluoro-2,2,3,3-tetrachlorobutane will continue to influence technical progress across multiple industries. As manufacturers, we are committed to setting the standard, not just meeting it, ensuring those who depend on our chemistry can do so with confidence and clarity.