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HS Code |
802906 |
| Iupac Name | 1-iodo-2,3,4,5,6-pentafluorobenzene |
| Cas Number | 773-61-1 |
| Molecular Formula | C6F5I |
| Molar Mass | 293.96 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 2.14 g/cm³ |
| Melting Point | -13 °C |
| Boiling Point | 185 °C |
| Refractive Index | 1.51 |
| Solubility In Water | Insoluble |
| Smiles | C1(=C(C(=C(C(=C1F)F)F)F)I)F |
| Pubchem Cid | 13778 |
As an accredited Iodopentafluorobenzene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle with a tightly sealed cap, labeled clearly, containing 100 grams of Iodopentafluorobenzene, includes hazard and handling warnings. |
| Shipping | Iodopentafluorobenzene is typically shipped in sealed glass or PTFE containers to prevent contamination and moisture ingress. It should be packed according to hazardous materials regulations, labeled appropriately, and cushioned against breakage. Transport may require temperature control and compliance with relevant safety guidelines such as IATA, IMDG, or DOT for chemical substances. |
| Storage | Iodopentafluorobenzene should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of moisture or ignition. It should be kept separate from strong bases, oxidizers, and reducing agents. Proper chemical-resistant gloves and goggles are recommended for handling. Ensure clear labeling and restrict access to trained personnel only. |
Applications of Iodopentafluorobenzene in Industrial ManufacturingIodopentafluorobenzene is a high-purity aromatic halide widely used as an intermediate in the synthesis of complex fluorinated compounds. Our in-plant production standards target downstream industries with advanced requirements in pharmaceuticals, agrochemicals, materials science, and specialty electronics. This section outlines core industrial uses with specific integration routes, quality compliance, and formulation detail from the manufacturer's perspective. 1. Pharmaceutical Intermediate SynthesisThe compound provides a key halogenated building block in the preparation of active pharmaceutical ingredients, especially for fluorinated drug molecules. In pharmaceutical API manufacturing, chemists use its electrophilic aromatic iodine position to introduce or exchange functional groups, improving pharmacokinetic characteristics such as metabolic stability and bioavailability. Facilities implement strict handling and purification processes to avoid trace impurities. Batch integration spans pilot to GMP production, with close specification control. Industry compliance standards
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2. Agrochemical Active Ingredient ProductionIodopentafluorobenzene enables the introduction of perfluorinated aromatic segments in new-generation agrochemicals for crop protection. Agrochemical formulators incorporate it into the synthesis of herbicides and insecticides, improving persistence and selectivity. The chemical’s controlled reactivity assists in meeting strict residue controls. Manufacturing follows local and global pesticide regulations and trace impurity mitigation, especially regarding eco-toxicological thresholds. Industry compliance standards
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3. Advanced Liquid Crystal Materials ManufacturingThe high electron-withdrawing nature of iodopentafluorobenzene makes it a preferred starting material in synthesizing specialty fluorinated aromatics for display technology. Material scientists in the display industry utilize its molecular symmetry and fluorination pattern to craft high-performance liquid crystal and organic semiconductor compounds, enhancing contrast, switching speed, and chemical resistance. Industry compliance standards
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4. Specialty Polymer and Fluoropolymer ProductionR&D and production teams employ iodopentafluorobenzene as a reactive aromatic monomer for introducing perfluorinated segments into specialty polymers. The material’s chemical structure confers improved thermal stability, low surface energy, and chemical barrier characteristics. Polymer synthesis lines in industries such as coatings, membranes, and wire insulation leverage its properties to develop next-generation materials. Industry compliance standards
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5. Electronic-Grade Chemical Synthesis for Semiconductor ProcessesManufacturers of photoresists, etchants, and advanced dielectrics employ iodopentafluorobenzene to introduce fluoroaryl groups, enhancing resist pattern resolution and plasma resistance. Its high purity is critical for wafer-level integration, and it enters as a controlled intermediate or modifier for chemical vapor deposition and lithography process auxiliaries. Stringent quality checks trace all batches used in chip-fabrication environments. Industry compliance standards
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6. Fluorinated Fine Chemicals and Custom Synthesis ServicesContract and custom synthesis divisions utilize iodopentafluorobenzene to generate a library of specialty compounds for research and development departments in varied high-tech industries. The chemical core enables the rapid buildup of structurally unique, heavily fluorinated molecules required for performance materials, diagnostics, or sensor technologies. Processes adhere to multi-level chemical/analytical controls and confidentiality provisions for third-party innovation projects. Industry compliance standards
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We have been manufacturing iodopentafluorobenzene for years, refining batch after batch with our own staff right in our own reactors. Iodopentafluorobenzene, better known among colleagues as IPFB, stands out in the lab and on the production line for more than its name alone. Our process focuses on nothing but purity and traceability, down to the last step, because any slip can put entire syntheses at risk. Long before this compound hits the drum or glass bottle, our team tracks every gram and calibrates every process, because that is what downstream industries count on when working at the junction of fluorinated aromatics and tailored halogen reagents.
The molecule is simple enough—C6F5I—yet the practical demands behind it keep us vigilant through every stage. Through direct halogenation and careful iodine introduction, we reach high consistency in purity, avoiding side-products that linger if conditions slip, especially moisture and trace metals. What sets iodopentafluorobenzene apart from similar halogenated benzenes is the synergy of its electron-withdrawing fluorine rings and the activation by iodine. In a daily sense, this translates to higher reactivity toward nucleophilic substitution and reliable performance in multi-step syntheses.
Product quality always starts with the basic data. We maintain purity above 99%, verified by GC, with rigorous tests for moisture and acid residues to prevent unwanted side reactions in customers’ applications. From our experience, handling and storing iodopentafluorobenzene requires careful exclusion of light and moisture, no shortcuts, or else gradual hydrolysis can undermine what began as top-grade chemical.
Chemists in pharmaceutical labs, academic departments, and electronic material production all demand stable and consistent halogenated aromatics. Our IPFB has become a standard building block for Suzuki-Miyaura and Stille coupling reactions. The unique combination of iodine and the pentafluoro ring structure ensures it acts as a highly controlled electrophilic partner in cross-coupling chemistry, letting users build complex molecules efficiently. Peers in organic synthesis value the way IPFB facilitates the introduction of perfluoroaryl groups, often transforming devices used in optoelectronics and specialty film coatings.
Its use in pharmaceuticals, though indirect, is no less vital. Medicinal chemists introduce perfluoroaryl structures into potential drug candidates, and starting with reliable IPFB means downstream processes won’t stall or generate unexpected impurities. Beyond the lab, electronics manufacturers put their trust in us to maintain the optical grade required for advanced imaging films and circuit substrates.
Not all benzene derivatives behave alike. Chloropentafluorobenzene and bromopentafluorobenzene fall short for projects where precise reactivity or leaving group efficiency is crucial. We’ve observed, from decades on the floor, that the iodine atom on IPFB is both a better leaving group and a more versatile synthetic handle. This opens pathways in organometallic conversions where less reactive halides wouldn’t budge, no matter the catalyst loading or temperature.
In terms of handling, our team always notes that while brominated and chlorinated analogs tolerate slightly rougher storage without breaking down, iodopentafluorobenzene responds best to the techniques we've established—sealed containers, low-temperature warehousing, and no compromise on cleanliness. Those small details come from years of feedback, including customer returns prompted by decomposition or trace impurity issues in poorly handled batches from less meticulous sources.
We don't just rely on certificates or batch numbers. Each lot gets mapped through our internal system, letting chemists address any challenges back to the very reactor where that gram came from. Production teams follow SOPs that we ourselves wrote, and labs—not outside contractors—conduct ongoing analysis. In one instance, several years ago, monitoring flagged a spike in acid impurities that customer testing could have missed. Tight process controls caught it long before our internal release, and years later, a policy of hands-on accountability remains.
Every vessel we use for IPFB is reserved for fluorinated organics only. Cross-contamination with other halogen series has caused headaches in both our plant and others, so we run decontamination cycles regularly. By never mixing lines, we avoid both reactant waste and end-stage purification headaches. Over the years, this has meant lower reject rates and longer relationships with research groups who recognize the difference between a reliable manufacturer and a careless supplier.
Some of the most valuable feedback about our IPFB has come from academia and specialty chemical inventors. One research group flagged subtleties in photoreactivity that definitely would have gone unnoticed without such field testing. As a result, we calibrated UV storage protocols across the warehouse—no guesswork, just lessons learned. Anyone seeking to use IPFB in photolithographic or high-precision electronic applications benefits from those incremental improvements.
Another case involved a pharmaceutical partner using IPFB as a key precursor. Their process proved exceptionally sensitive to perfluorobenzene-level impurities, which caused product loss and process downtime. We traced the origin to a subtle vendor material issue with a fluorine source and overhauled our incoming QC scope. These stories reflect what can actually go wrong and how direct, honest collaboration with users brings tangible process improvements.
We teach every team member the handling protocols for IPFB—these were shaped year by year, from practice, not copied from a generic industry handbook. Operators know that spills, if left unaddressed, not only threaten worker health but spoil whole rooms of sensitive compounds via vapors. Housekeeping here isn’t just nice-to-have, it’s the margin of safety for every subsequent batch. Any break in the cold chain or slip in container closure can compromise purity, so we conduct random audits and keep open lines with all teams on the ground.
From a ventilation and fire safety standpoint, even the best IPFB needs caution in scale-up. Operators work with local exhaust on every charge, and storage rooms sit equipped with continuous monitoring, as recommended for high-purity halogen organics. These are principles hammered home through hard-won experience—each safety meeting draws on what actually happens, not just regulatory requirements or secondhand reports.
Our facility produces byproducts, and managing those streams responsibly matters both legally and ethically. IPFB synthesis generates halide wastes, so we run dedicated neutralization and fluorine scrubbing units, keyed to the unique challenges of stable organofluorines. Partners and neighbors expect accountability, and our record shows that investment in waste control yields more than compliance—it’s about respect for community and crew.
Over the years, we’ve adopted solvent recovery and internal recycling to cut waste further. From distillation residue reduction to process optimization that minimizes raw material overages, these upgrades stem from daily review of drum weights and emissions logs, not just regulatory checklists. Our approach—continual tweaking, not just flashy upgrades—lets us keep pace with raised expectations in responsible manufacturing.
No one escapes the market’s swings on raw iodine or fluorinated benzene feedstocks. We buy large volumes straight from vetted producers, leveraging longstanding relationships to keep incoming quality high and variation minimal. This helps us keep our promise on spec consistency while offering pricing that doesn’t whipsaw with each commodity hiccup. Our procurement crew meets weekly to review supply chain data, debate forward contracts, and spot any early signs of risk to production flow.
Unplanned outages at key suppliers once forced smaller producers to source from informal traders, resulting in scandalous impurity levels and batch recalls across the sector. We absorbed the lesson, adding buffer stock and expanding supplier audits, because getting burned once is once too many. We keep communication direct—our partners get the details, not runaround, about shipment dates, lead times, and any potential for delay. This builds the trust buyers expect from a real manufacturer, not a distributor miles from the product itself.
Our manufacturing adheres to all relevant chemical control and transportation laws in each shipping region. Certifications don’t come from paperwork alone; our own chemists attend annual compliance workshops, and our internal documentation leaves no ambiguity about batch origin or process flow. Over time, we’ve had regular audits from external agencies and have always passed, not because we prepare for inspection days, but because we work well all the time.
Shipping iodopentafluorobenzene internationally, especially to pharmaceutical and electronic material customers, calls for navigational skill with export controls and hazard labeling. Our logistics team manages declarations and customs submissions with the same attention our chemists give the reactors. The route to hassle-free, on-time delivery goes through dense regulatory territory, and our experience with hundreds of shipments lets us clear hurdles that can trip up less experienced firms.
Any process, even one that’s run for decades, benefits from a new pair of eyes. We have a program where operators suggest tweaks to increase yield or cut downtime—sometimes these ideas come from weekly team huddles, sometimes from a casual discussion on the plant floor about a misbehaving batch. Our management reviews every idea, because nobody knows our compounds more intimately than the people who make them. Over the years, these incremental changes have delivered more value and reliability than any one-off investment from a consultant or outside expert.
Improvements aren’t always glamorous. From switching to more robust pump seals (after repeated leaks on cold fluorinated streams) to adopting double-barrier containers for long-haul shipments, each solution is rooted in practice. Failures get documented, discussed, and never brushed aside. This open, pragmatic attitude reflects who we are—a manufacturer run by people who respect the chemistry and the stakes.
The dialogue with technical teams at research institutes, tech firms, and pharma manufacturers shapes our product more than any producer-driven agenda. Detailed feedback from a struggling reaction setup can prompt us to modify purification steps; a single failed analytical test may prompt a change in workup routines. In one instance, a multinational told us their in-process controls revealed a rare impurity pattern, so we adjusted our process at the pilot plant until the problem disappeared.
Shipping large orders brings its own lessons. We track every drum’s journey from warehouse to customer dock, keeping records not just for regulators but for our own troubleshooting needs. If a complaint surfaces about container residue or off-odors, we don’t send a canned reply. Our field staff visits regularly, reviews packing methods on-site, and feeds learning back to the plant.
Technical groups from universities and corporate R&D teams visit us several times per year. Walking the reactor floor or peering into a sample vial gives visitors a sense of the care and know-how we invest in every IBPB lot. These exchanges don’t just build relationships—they expose us to the latest in downstream applications and analytical techniques. Over many such tours, our staff and visitors have traded insights about the changing landscape in fluorinated aromatics, from green chemistry trends to novel coupling partners for advanced materials.
Participating in technical conferences with our own real-world case studies means we learn and contribute in equal measure. Practical discussion with other producers and users—sometimes competitors, often industry partners—keeps our understanding relevant, grounded in field practice rather than abstract theory or untested claims.
Making and supplying iodopentafluorobenzene requires more than reactors, staff, or certificates. It means taking responsibility for how that molecule fits into broader networks—be it academic innovation, industrial progress, or community-wide environmental care. Our team feels pride when a long-term partner asks for advice or shares a story of breakthrough enabled by reliable IPFB. Through all these years, one truth stands out: the real value is not just in the chemical, but in the commitments, feedback cycles, and hard-won lessons built up over every step from drum to end-use.