|
HS Code |
769398 |
| Cas Number | 1187-94-2 |
| Molecular Formula | C7F16 |
| Molecular Weight | 350.05 g/mol |
| Iupac Name | 1,1,1,2,2,3,3,4,4,5,5,6,6,7,7,7-Hexadecafluoroheptane |
| Appearance | Colorless liquid |
| Boiling Point | 82-83 °C |
| Melting Point | -75 °C |
| Density | 1.7 g/cm³ at 25 °C |
| Vapor Pressure | 156 mmHg at 20 °C |
| Solubility In Water | Insoluble |
| Odor | Odorless |
| Flash Point | Non-flammable |
| Refractive Index | 1.25 at 20 °C |
| Synonyms | Perfluoroheptane |
| Structure Type | Linear alkane, fully fluorinated |
As an accredited Hexadecafluoroheptane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Hexadecafluoroheptane is packaged in a 100 mL amber glass bottle with tamper-evident seal, labeled with hazard information. |
| Shipping | Hexadecafluoroheptane should be shipped in tightly sealed containers made of compatible materials, protected from moisture, heat, and ignition sources. Transport in accordance with local, national, and international regulations for environmentally hazardous substances. Ensure clear labeling, with accompanying safety data sheets (SDS) and emergency procedures readily available during transit. |
| Storage | Hexadecafluoroheptane should be stored in tightly sealed containers made from compatible materials, such as PTFE or glass, to prevent leaks and contamination. Keep it in a cool, dry, and well-ventilated area away from heat, open flames, and strong oxidizers. Store at ambient temperature, protected from direct sunlight, and label containers clearly to prevent accidental misuse or exposure. |
Applications of Hexadecafluoroheptane in Industrial ManufacturingHexadecafluoroheptane plays a specialized role in advanced industrial production, supporting stringent application needs across electronics, specialty coatings, precision cleaning, and fluoropolymer processing. The following sections outline core downstream sectors, referencing applicable compliance regimes, usage ratios, implementation stages, and representative finished goods. 1. Semiconductor Manufacturing: Cleaning and DryingPrecision cleaning of wafers and assemblies critically relies on hexadecafluoroheptane for solvent dehydration and drying in advanced semiconductor fabs. The material’s low surface tension and chemical inertness allow it to displace moisture on microstructures without residue and minimize particle adherence. Integrated within single-wafer processing and back-end cleaning lines, it helps maintain sub-micron cleanliness for logic and memory device production. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Fluorinated Electronic Liquids: Dielectric Coolant BlendsEngineers use hexadecafluoroheptane as a key blending raw material in non-conductive, thermally stable fluorinated liquids for direct immersion cooling of datacenter servers, power electronics, and radar arrays. Its dielectric performance and compatibility with sensitive device packages allow for high thermal transfer efficiency and no risk of electrical shorts. It factors into proprietary coolant formulas supporting tight equipment reliability targets. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Specialty Medical Device Processing: Solvent Roles in PTFE and Catheter ProductionMedical device manufacturers integrate hexadecafluoroheptane for swelling polytetrafluoroethylene (PTFE) tubing and flushing microcatheter assemblies during production. Its unique interaction with high-performance fluoropolymers enables dimension control before sintering, and delivers non-reactive rinsing for removing manufacturing residues. Material purity and traceability remain under close QC scrutiny for clinical safety. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. High-Performance Coatings: Fluorinated Coating FormulationsIndustrial coatings producers use hexadecafluoroheptane as a carrier solvent and levelling agent in high-end fluoropolymer finishes for aerospace, biopharma, and chemical process industries. It enables uniform dispersion of PTFE and perfluoroalkoxy (PFA) fine powders, reduces coating defects on complex geometries, and accelerates solvent evaporation for multilayer film deposition under tightly controlled conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Analytical Instrumentation: Chromatography and Thermal FluidsLaboratory equipment and specialty analytical instrument manufacturers apply hexadecafluoroheptane as a reference standard in gas chromatography and as a calibration fluid in thermal analysis instruments. Its defined boiling point, low polarity, and purity profiles support precise retention time correlations and thermal transfer benchmarks, ensuring quality control and instrument accuracy in research and QA/QC labs. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Operating for decades in the specialty chemical business, we've seen solvent landscapes change and technical demands rise in both established and emerging sectors. Hexadecafluoroheptane, known in some quarters as perfluoroheptane or C7F16, answers a set of needs that many conventional solvents can't fully deliver on. Our production process gives us control over purity, consistency, and the details that matter at the bench and in the reactor. We're not a third party looking for margin—we carry out every distillation, drum, and quality certificate in-house, accountable to the customers we serve.
Customers who choose Hexadecafluoroheptane often ask for molecules that maintain chemical inertness under severe conditions—high temperature, strong acids or bases, oxidative environments, even intense sterilization cycles. This molecule stands out for its resistance to hydrolysis and corrosive breakdown. The perfluoroalkyl chain brings low reactivity, and the boiling point sits in a practical range for closed or open system processes. That quality helps it fill critical roles for engineers and research teams pushing hardware, coatings, or surfactant systems into new territory.
We've shipped Hexadecafluoroheptane for customers in electronics cleaning, vapor phase heat transfer trials, chemical wear barrier research, and even some niche medical device applications. Its unique structure avoids hydrogen atoms completely—every position on the carbon backbone tightly bonded to fluorine instead. From years of feedback, we see this fluorination creates a reliable shield against unwanted side reactions. In the rare situations where customers report an issue, it's typically due to process contamination or handling errors, not inherent instability of the product.
Decades spent in perfluorocarbon synthesis highlight the importance of robust logistics. Hexadecafluoroheptane arrives ready to use—clear, non-flammable, free from water, acids, and trace metals. We treat packaging as seriously as distillation. Virgin high density polyethylene and lined drums keep product contamination at bay even after months in storage. Each lot meets spectroscopic and physical property standards we've refined over years, since customers have zero tolerance for clouding, off-odor, or unexplained residues in their final stages.
Downstream users appreciate that they can recycle or recover Hexadecafluoroheptane with established methods—fractional distillation, gas scrubbing, or closed loop solvents recovery. Handling is straightforward: the chemical is heavier than water, flows easily, and has minimal vapor pressure under typical indoor conditions. We’ve watched engineers develop fluid transfer and containment protocols based on these traits, minimizing product loss and environmental risk. The low surface energy gives it a further edge for applications like fluoropolymer processing, where cross-contamination or solvent drag-out becomes costly.
Many first-time buyers come from backgrounds using n-alkanes, cycloalkanes, or perhaps common chlorinated solvents like trichloroethylene or dichloromethane. Hexadecafluoroheptane stands apart. It won’t dissolve most organic polymers or elastomers, and delivers negligible solubility for inorganic salts. That means product residues don’t develop, and workers face less risk of unexpected softening or swelling in gaskets, pump seals, or linings.
With traditional hydrocarbons, residue formation and unwanted reactivity often appear under UV or thermal stress. Chlorinated solvents raise regulatory headaches and worker safety concerns. We’ve watched regulations tighten every few years—air monitoring, wastewater tracking, and hazardous waste documentation. Hexadecafluoroheptane sidesteps much of that. Its chemical stability makes it free of the breakdown products regulators watch with concern. Customers in cleanroom and semiconductor segments, in particular, prefer it for those reasons. Ash and residue after evaporation measure nearly zero.
Another key difference lies in environmental persistence and worker safety. While perfluorocarbons including Hexadecafluoroheptane attract scrutiny for their greenhouse characteristics, their toxicity profile for acute and chronic exposure measures lower than many standard solvents. We follow developments in green chemistry and emission controls, adapting our processes to limit fugitive losses and promote reclamation. Industrial-scale users regularly invest in solvent reclamation systems, keeping environmental impacts and operating costs in check.
Direct customer support has taught us that no two applications handle the product quite alike. In electronics cleaning, the chemical’s high density offers efficient displacement and removal of particulates—boards submerged in Hexadecafluoroheptane release residues that resist water or lighter hydrocarbons. Medical device R&D teams appreciate the minimal bioreactivity and its ability to function in cell-contact scenarios during device assembly. Even in situations with elevated temperatures, the perfluoroalkane backbone stays inert. We’ve seen competitive solvents from halogenated groups generate decomposition acids that can corrode metal contacts or degrade plastic housings. With Hexadecafluoroheptane, component longevity improves.
One overlooked strength surfaces in liquid-liquid extractions. Hexadecafluoroheptane’s immiscibility with both water and many organic phases allows for precise fractionation—valuable when separating aqueous from organofluorine residues, or pulling trace analytes from complex biological matrices. Several analytical chemists from process development backgrounds have told us they achieved cleaner separations and reduced cross-contamination using this solvent, compared to lighter perfluoroalkanes or non-fluorinated candidates.
Further downstream, heat transfer work benefits from the product’s broad thermal stability window. In pilot rigs simulating industrial-scale cooling or high-value component testing, stable boiling and condensation points remove some of the headaches associated with maintenance and throughput prediction. Our collaboration with manufacturing engineers pinpoints solvent compatibility as a source of unexpected downtime or maintenance. Choosing Hexadecafluoroheptane means equipment experiences less fouling and component replacement cycles stretch further, supporting lower total cost of ownership.
The details of production matter—impurity levels, isomer distribution, and packaging integrity make long-term reliability possible. We run each batch through spectrometry and chromatography checks, targeting 99.99 percent purity and confirming the absence of lower and higher homologues. Our labs maintain high-precision temperature and pressure baths, so users get narrow-range physical properties for their process calculations—density, viscosity, and refractive index numbers that line up batch after batch. Customers with high-throughput analytical work regularly check against our certificates and report tight matches, rarely needing re-runs or skepticism about sample authenticity.
Besides purity, our team tracks moisture levels as a top priority. One trace of water ruins a supercritical extraction, or causes phase separation in a carefully planned trial. We keep water content well below typical industry cut-offs, relying on both advanced dehydration stages and closed-system handling. Nothing frustrates a chemist more than finding haze or phase lines after a tank transfer, and that's a headache we spare with vigilant process control and storage discipline. From our experience, pre-emptively managing this risk beats troubleshooting on the back-end every time.
The environmental footprint of perfluorocarbons deserves honest assessment. While the chemical offers operational safety and long lifecycle advantages, Hexadecafluoroheptane does not degrade naturally in common settings. As manufacturers, we’ve invested in vapor recovery and solvent recycling systems, minimizing annual emissions below voluntary targets set by regulatory bodies. We have ongoing programs with industrial partners to test alternatives in lower-impact classes, but for a subset of critical uses, the technical case for perfluorinated heptanes remains strong.
Large-scale customers install condensers and recovery tanks to keep working fluid inside the process loop. Any material not recyclable to original purity, we collect for off-site destruction in specialized incinerators. On-site safety and environmental teams monitor total loss rates, and we share this data transparently with clients looking for Life Cycle Analysis information. Such measures allow users to build defensible cases for continued use, meeting the rising demands from stakeholders on environmental reporting and stewardship.
As manufacturers controlling every aspect of Hexadecafluoroheptane production, we shape our offer around feedback and collaboration, not sales cycles or catalog listings. We’ve learned from each transfer, every raw material inspection, and all the unvarnished feedback users provide after months of extended trials. Our engineers participate in troubleshooting, whether advising on solvent recovery or consulting on new reactor designs that maximize chemical stability. We’re used to customers benchmarking against alternatives—whether other perfluoroalkanes, proprietary hydrofluoroethers, or classic chlorinated solvents.
What we find consistently: long-term users return for technical accuracy, product reliability, and quick problem-solving. They don't want a confusing maze of resellers—they want to know who distilled, packaged, and tested their solvent, and that’s what we bring. Our record with Hexadecafluoroheptane and similar fluorocarbons comes from hands-on production, not bulk reselling or speculative listing. Users say this makes the difference when projects reach scale or face technical scrutiny from regulators, clients, or internal safety teams.
Hexadecafluoroheptane earns new roles year by year, as technical boundaries move and industries tackle tougher expectations. Flexible electronics, miniaturized assemblies, and new biomedical processes keep pushing the limits on chemical compatibility and extraction purity. We adapt, always adjusting specifications with customer stories in mind. Where batch reproducibility or trace contaminant levels once seemed over-cautious, they’re now deal-breakers for qualification in sensitive chip fabrication or drug delivery systems.
Customers entering new spaces—battery R&D, next-wave catalysis, or direct contact cooling—ask for help in tailoring workflows and support infrastructure. We respond directly, based on data from our own process development and the good and bad lessons from past scale-ups. Across hundreds of unique installations, we've seen homemade adjustments work and fail, and we don’t leave customers to repeat old mistakes. Our approach keeps technical staff informed with full transparency on product origins, process capability, and support resources.
Our identity as a manufacturer plays out not just in product certificates or supply chain stability, but in the experience we offer to customers. We stand ready to support qualification trials, offer batch-specific data, and respond rapidly to feedback—whether it comes from R&D chemists, production managers, or EHS coordinators. We back up Hexadecafluoroheptane’s technical promise with evidence from every production cycle.
Concerns about impurities, product integrity, or supply disruptions get managed at the source. Our labs stay closely aligned with inventory and production scheduling, so we avoid the lags and finger-pointing that can occur down multilayer supply chains. Direct relationships make both technical problem-solving and commercial arrangements smoother. We’re often the first call when users plan to upgrade, optimize, or investigate process improvements touching on solvent choice.
Decades in the business ground us in the belief that reliable sourcing, technical rigor, and openness keep customers ahead of regulatory, economic, and technological shifts. Hexadecafluoroheptane stands as an example: not the cheapest or most common molecular choice, but among the most dependable for teams with zero margin for unexpected behavior. Our doors stay open to technical questions, batch reports, or deeper partnership discussions—based on the expertise only a manufacturer gains through years in the field.