|
HS Code |
496131 |
| Chemical Name | Hexafluorobisphenol A |
| Cas Number | 1478-61-1 |
| Molecular Formula | C15H10F6O2 |
| Molecular Weight | 336.23 g/mol |
| Appearance | White crystalline solid |
| Melting Point | 127-130 °C |
| Boiling Point | 393.2 °C at 760 mmHg |
| Solubility | Slightly soluble in water |
| Density | 1.62 g/cm3 |
| Flash Point | 191.8 °C |
| Synonyms | 2,2-Bis(4-hydroxyphenyl)hexafluoropropane |
| Purity | Typically ≥99% |
| Refractive Index | 1.526 |
| Storage Conditions | Store in a cool, dry, well-ventilated area |
| Ec Number | 216-036-7 |
As an accredited Hexeafluorobisphenol A factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of Hexafluorobisphenol A is packaged in a sealed amber glass bottle with a secure screw cap, labeled for laboratory use. |
| Shipping | Hexafluorobisphenol A should be shipped in tightly sealed, chemically resistant containers to prevent leaks and moisture exposure. It must be clearly labeled and transported according to relevant chemical safety regulations. Store and ship under cool, dry conditions, away from incompatible substances, using appropriate protective measures to ensure safe handling and delivery. |
| Storage | Hexafluorobisphenol A should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong bases and oxidizing agents. Keep the chemical away from moisture and direct sunlight. Proper labeling and secondary containment are recommended to prevent leaks or spills. Use appropriate chemical storage cabinets for added safety. |
Competitive Hexeafluorobisphenol A prices that fit your budget—flexible terms and customized quotes for every order.
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Every day in our plant, we see science and practicality fuse together in compounds like Hexafluorobisphenol A (HF-BPA, also known as 4,4’-(Hexafluoroisopropylidene)diphenol). HF-BPA stands apart from conventional bisphenols, carrying six fluorine atoms in its structure and reflecting the evolving demands of high-tech applications. Our workforce specializes in synthesizing this molecule, which delivers a rare blend of chemical stability, mechanical robustness, and thermal endurance. Our most common models include crystals and ultra-high purity powder. A tight rein on process control, purification stages, and batch consistency gives us the confidence to serve polymer innovators worldwide.
Quality is in the details with this material. We keep the water content well below 0.1%, control iron and heavy metal impurities, and can supply high-purity grades that reach 99.9% assay, as measured on our calibrated HPLC and GC systems. Optical clarity, particle size distribution, and melting point have always mattered to our partners, especially for electronics and precision coatings. Labs put us to the test: our hexafluorobisphenol A stands up under scrutiny because we select feedstocks with traceable provenance and validate each lot before shipment. Each drum or bag comes off the line sealed and tested for tight specifications, without compromise.
Electronics and aerospace customers search for materials that survive years of field use, harsh cleaning, soldering, and relentless temperature swings. Our HF-BPA forms a cornerstone of high-performance engineering plastics, especially polycarbonates and polyethers. Unlike conventional bisphenol A, its structure puts up a highly resistant barrier against hydrolysis and aggressive chemicals; this property has opened doors in circuit board laminates, specialty membranes, and high-clarity optical films. Over the past decade, we’ve refined our process to match the immaculate requirements of the semiconductor world. The difference shows up in reliability testing; parts made with HF-BPA consistently maintain performance metrics, where ordinary counterparts degrade and fail early.
This molecule does more than just replace bisphenol A in a recipe. Compared with standard bisphenol A and bisphenol F, hexafluorobisphenol A resists acids, bases, and the extremes of heat cycling far beyond what ordinary plastics or resins tolerate. Where some polymers yellow, craze, or warp, our fluorinated grade keeps its shape and transparency. Engineers need dielectric stability, especially as device geometries shrink year by year; the strong electron-withdrawing effect of fluorine drives down dielectric constants, something that classic bisphenols can’t achieve. In hands-on testing, this pays off with precise signal transmission and lasting insulation in multilayer printed circuit boards.
Research and development has never rested. Our technical service teams work with users who are pushing boundaries in optical coatings, water purification, advanced membranes, and lithium batteries. In battery systems, HB-BPA delivers solvent and electrolyte resistance that avoids dendrite growth and prevents unwanted side reactions. Membrane manufacturers tell us that the presence of fluorine in the backbone improves fouling resistance, giving end-users longer equipment lifespans and lower downtime. We refine particle sizing not for appearance, but for performance in precision applications—inks, adhesives, and electronic encapsulants all behave differently based on upstream choices. We always keep communication open with customers, because we face the same operational risks if things don’t perform as promised.
Continuous operation and real-time monitoring define how we manufacture HF-BPA. Our reactors run under exacting temperature and pressure setpoints, reacting hexafluoroacetone with phenol to form the final diphenolic backbone. We optimize feed ratio and reaction kinetics, always taking safety and environmental controls as more than regulatory boxes to check—chlorinated and fluorinated solvents, waste streams, and air emissions get filtered, recycled, and monitored. The purified product passes through multi-stage filtration and crystallization. We sort bulk solid into manageable lots, all traceable to production history. From lab chemists to process operators, what we learn from every batch feeds back into the next, improving yields and reproducibility.
The power of HF-BPA doesn’t reside solely in a datasheet of numbers—it comes from listening to customer challenges, helping them troubleshoot during formulation, and advising on downstream processing. Our technical specialists actively visit partner plants, collaborate on pilot trials, and run tailored lab tests to guarantee performance is not just theoretical. Users in high-temperature molding, film extrusion, or advanced resin modification need fast answers, and because we have the deepest process knowledge, we’re best equipped to give them valid solutions. New project launches bring unforeseen hurdles: scaling up from grams to tons, handling dust or static, tracking batch-to-batch shifts. Our team has walked through these issues many times, and our advice reflects that experience.
Supply chain interruptions and quality fluctuations exist everywhere, but long-term partners choose us for predictability. Raw materials sourcing sits at the heart of our business, and we maintain a solid network that can respond to sudden swings in demand. Our logistics teams manage custom packaging, moisture barriers, and anti-static linings to meet differing regional requirements for storage and transport. Shipment lots come with analysis certificates matched to lot numbers, and our traceability system lets users verify source, batch conditions, and test outcomes at any point along the supply chain. We believe this traceability has provided real peace of mind for customers weathering global supply shocks.
Handling high-purity fluorinated compounds calls for expertise and care, not just for personnel but for the communities around us. We invest in control systems that capture off-gassing and minimize fugitive emissions. On-site wastewater treatment and thermal oxidizers drastically reduce environmental footprint. Our approach focuses on full-lifecycle transparency with partners: safe handling guidelines, reuse protocols, and waste collection tie directly to our stewardship principles. Customers often ask about lifecycle impact and end-of-life strategies; our support goes beyond simple instructions, helping integrators safely recover and dispose of used materials in compliance with current regulations.
Some of the most significant breakthroughs have arisen from direct collaboration with research universities and major end users. By sharing failure modes, performance data, and processing insights straight from the manufacturing line, we’ve enabled next-generation flame-retardant materials, lightweight composites, and chemically resistant fiber systems. For example, specialty coatings formed with our HF-BPA have achieved better UV resistance in harsh outdoor environments. Partnerships with OEMs in automotive, aviation, and consumer electronics have driven us to improve material cleanliness, extend shelf life, and compress lead times to meet ever-tightening go-to-market schedules. We see the future of chemical manufacturing as a dialog, not a monologue.
Our quality lab runs 24/7, staffed by chemists with years of hands-on experience in organic analytics. Automated samplers, chromatographs, and spectrometers give us real-time data to catch even slight deviations before material leaves the site. All adjustments go back into the main process controls, preventing drift and narrowing tolerances batch by batch. We know that for advanced laminates or and next-generation sensor films, a tiny contaminant can derail production. Our team self-inspects, cross-checks, and shares findings so that what reaches our clients has met internal standards that go past industry norms.
Field engineers and materials scientists have tested our HF-BPA in grueling environments—from offshore rigs to spacecraft payloads. Reports show consistent physical and dielectric properties after extensive thermal cycling and solvent exposure, settings where standard bisphenols break down or embrittle with time. Having a fluorinated core changes mechanical fatigue and chemical interaction, which enables designers to specify lighter, thinner, and more complex assemblies than would otherwise be possible. This material holds up when exposed to halogenated solvents, cleaners, and critical sterilization steps, without the swelling or breakdown seen in non-fluorinated alternatives.
As new applications demand more from specialty chemicals, our R&D teams keep building on the core attributes of HF-BPA. We are experimenting with further functionalizations, working with both polymer companies and electronic device designers to target even lower dielectric constants and greater resistance to long-term field degradation. Sustainability initiatives—both upstream and downstream—drive us to find cleaner synthesis routes, greener auxiliaries, and better end-of-life solutions. Our partnerships with environmental monitoring companies have already revealed strategies to cut energy and water usage by significant margins across the installation.
We recognize the global conversation about sustainability and safety in chemicals. Our policies on transparency, coupled with engagement in international regulatory forums, let us take part in shaping the responsible development of new materials. We share environmental monitoring data, incident reports, and improvement plans with customers who set stricter internal requirements than regulators. Some requests come from multinational partners who need carbon footprint documentation or audit trails, and our production teams work with third-party verifiers to keep this process open. Long-term commitments guide our decisions—even choices about energy sourcing, labor safety, and process automation feed into a mindset that the manufacturer’s responsibility never ends at the facility gate.
Our business succeeds by helping downstream partners unlock technical advantages in products that touch millions of lives—from 5G base stations and solar inverters to medical devices and automotive electronics. Design engineers, procurement leads, and formulators regularly consult with us to push past problems that legacy chemicals can’t solve. We keep a tight feedback loop between customer experience and production improvements, always seeking out stories from the field and lessons learned. Through this ongoing exchange, we’ve adjusted our quality control, reformulation approaches, and even how we package certain grades. Our willingness to spend time on application-level troubleshooting stems from years of seeing how real-world challenges move the industry forward.
Our credibility as a manufacturer rests on experience, not just marketing. We keep production facilities running smoothly by blending hands-on chemical knowledge with lessons from past setbacks. Supply hiccups, unexpected impurity spikes, or novel application failures all feed into continuous improvement. Clients who depend on HF-BPA rely not only on specifications but also on the assurance that their provider knows how to keep material consistent, clean, and reliable. Our difference comes from decades spent refining reactions, automating measurement systems, and walking the line between performance and process safety.
Digital transformation sets higher standards year after year. Industry turns to advanced materials that can protect devices, circuits, and infrastructure even as part sizes shrink and operating conditions get tougher. Our HF-BPA supports innovation in chip packaging, medical implants, solar encapsulation, and even next-generation display panels. Applications often bring unforeseen issues: process instability, unexpected reactivity, or inconsistently cured films. Having expertise on-hand, with staff who can trace issues back to raw materials, gives users peace of mind and keeps projects moving from prototype to mass production.
We keep investing in pilot and demonstration lines to explore new formulations and production technologies. Collaborations with startups, university labs, and end-user consortia spur deeper understanding of how HF-BPA can support tomorrow’s challenges—in next-generation sensors, aerospace materials, water treatment systems, and evolving battery chemistries. We see our responsibility as a mix of supplying material, sharing knowledge, and driving collective progress. By pooling expertise and reinvesting in our own capabilities, our goal remains to keep pace with industry needs and never miss a chance to deliver value where it counts.
Manufacturing hexafluorobisphenol A blends science, craft, and a relentless attention to detail. Over years, we have seen it redefine performance for polymers, coatings, and electronics in ways simple molecules can’t match. Difference doesn’t stop at a molecular formula—it shows up in reliability, longevity, and the support that goes along with every shipment. We commit not just to product quality, but to the trust and progress of every partner we serve. By staying grounded in experience, responsive to changing field needs, and engaged with high-stakes innovation, we continue to make sure that each batch of HF-BPA helps our customers build the future.