|
HS Code |
734314 |
| Chemicalname | Carbonyl Fluoride |
| Chemicalformula | COF2 |
| Molecularweight | 66.01 g/mol |
| Casnumber | 353-50-4 |
| Appearance | Colorless gas |
| Density | 1.452 g/L (at 0°C, 1 atm) |
| Meltingpoint | -82.0°C |
| Boilingpoint | -83.1°C |
| Solubilityinwater | Hydrolyzes in water |
| Vaporpressure | 3.07 atm (at 25°C) |
| Odor | Pungent, suffocating |
| Unnumber | 2194 |
| Hazardclass | 2.3 (Toxic gas) |
| Refractiveindex | 1.221 (at 20°C) |
As an accredited Carbonyl Fluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Carbonyl Fluoride is supplied in a 10-liter high-pressure steel cylinder, labeled with hazard warnings and fitted with a secure valve. |
| Shipping | Carbonyl fluoride should be shipped in tightly sealed, corrosion-resistant cylinders under dry, cool conditions. It is a toxic, corrosive, and highly reactive gas classified as a dangerous good (UN 2198). Proper hazard labeling, ventilation, and secure containment are essential. Shipping must comply with regulatory standards for toxic and compressed gases. |
| Storage | Carbonyl fluoride should be stored in tightly closed, well-labeled containers made of compatible materials, such as stainless steel or nickel alloys. Store it in a cool, dry, and well-ventilated area, away from moisture, heat, and incompatible substances like acids and bases. Proper storage also requires segregation from flammable materials, and the area should be equipped with appropriate gas-detection and emergency equipment. |
Applications of Carbonyl Fluoride in Industrial ManufacturingOur carbonyl fluoride is integral to specialized fluorochemicals production and advanced material synthesis, driving reliable outcomes in industries demanding stringent control over purity, process consistency, and compliance. Below, we detail how industrial users apply this raw material in relevant fields, focusing on real-world process steps, regulated requirements, and finished product categories. 1. Fluorinated Polymer Precursors for Electronics and Specialty FilmsAs a key intermediate, carbonyl fluoride supports the manufacture of high-performance fluorinated polymers, notably for printed circuit board (PCB) laminates and release films. Process engineers employ it in fluorination and carboxylation reactions to yield monomers essential for next-generation fluoropolymers. Manufacturers value the ability to tightly control molecular architecture for dimensional stability and dielectric strength, as required by electronic and high-frequency industries. Industry compliance standards
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2. Synthesis of Agrochemical Active IngredientsIn the crop protection chemicals sector, formulators use carbonyl fluoride to introduce specific fluorine functionalities in agrochemical molecules. It acts as a carbonylating and fluorination agent in proprietary synthetic routes, allowing for the tailored modification of pesticidal and herbicidal structures where metabolic stability and environmental profile are crucial. Industry compliance standards
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3. Pharmaceutical Intermediate for Antiviral and Anti-inflammatory DrugsAPI manufacturers leverage carbonyl fluoride in process-scale carboxylic acid activation and fluorination steps during the synthesis of certain modern drug classes, especially those with fluorinated aryl and heterocyclic motifs. The ability to achieve site-selective introduction of fluorine atoms enhances pharmacokinetic properties, vital for global regulatory submission dossiers. Industry compliance standards
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4. Specialty Gas for Semiconductor Cleaning ProcessesSemiconductor fabrication facilities incorporate carbonyl fluoride as a specialty gas for chamber cleaning and surface etching operations, particularly where minimal residue and precise layer stripping are essential. Its controlled reactivity with metal oxides achieves fast cleaning cycles for process tool maintenance, limiting downtime in production lines. Industry compliance standards
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5. Fluorinating Agent in High-Performance Lubricant ProductionProducers of advanced lubricants for aerospace and vacuum applications employ carbonyl fluoride to fluorinate specific alcohol or ether functional groups, enhancing thermal and oxidative stability. Targeted fluorination steps provide low-volatility base fluids that extend operational temperature windows and reduce chemical degradation risks for high-stress environments. Industry compliance standards
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Producing carbonyl fluoride in our own chemical plant has taught us that reliability is the foundation of any process involving specialty gases. Over the years, we have seen firsthand just how critical each batch’s purity, stability, and consistency can be to a customer’s results. As a reactive, colorless gas with a noticeable, acrid odor, carbonyl fluoride (COF2) serves some of the most technically demanding sectors—including pharmaceuticals, agrochemicals, and advanced materials synthesis. We have tailored our production setup, monitoring, and quality checks through direct lessons learned from decades in the business.
We produce carbonyl fluoride through the direct reaction of phosgene and hydrogen fluoride under carefully controlled conditions. This process has required continual refinement to minimize byproducts and maximize purity; incremental changes in temperature profiles, flow control, and absorbent selection have made dramatic differences in cylinder quality. Each step, from reactor to purification to storage, gets tracked and logged by our technicians, not because an auditor or regulator asks us to, but because experience has taught us the cost of overlooking minor details.
Purity is not a buzzword here. For most users, especially those in fluorine chemistry or semiconductor applications, trace impurities—such as moisture, acid halides, or non-volatile residues—can ruin a whole line of syntheses or disrupt instrument performance. We keep water content far below 0.001%, sometimes tested batch by batch, with online gas chromatography and in-house FTIR checks validated with third-party laboratories on a regular schedule. Many customers, especially those running pilot projects for new drugs or crop protections, return time and again for this kind of consistency, because erratic supply or changing profiles in trace contaminants cost them dearly.
Early on, it became clear that every facility’s needs look a bit different. For this reason, we offer carbonyl fluoride in several grades and cylinder sizes, so users do not have to compromise process safety or production efficiency. Standard output features a purity of 99.9%, filled into seamless steel cylinders designed for pressurized gases. For research and microelectronic production, we fill high-purity, corrosion-resistant containers in small batches. Before any filling cycle, our team inspects and pre-treats every cylinder, using controlled purging procedures to keep background contaminants out.
Customers from the polymer industry often order our most cost-effective, industrial-grade product, suitable for capitalizing on COF2’s strong fluorinating power. In contrast, pharmaceutical and electronic customers require material free from interfering halogen acids or oxygenates. We saw early in our manufacturing journey that technical grade and high-purity grade can never be managed using the same protocols, so all equipment is segregated to avoid cross-contamination.
Carbonyl fluoride occupies a unique space among industrial chemicals. Its main use comes from its potent acyl fluoride group, which means it reacts quickly and predictably in both small-molecule transformations and polymer modifications. For many synthetic chemists, this reactivity reduces reaction temperatures and enables selectivity not easily achieved with alternatives like phosgene or sulfuryl fluoride. Our manufacturing team regularly works with process engineers from customer plants to understand which batch characteristics most influence ongoing yields and selectivity; over time, this feedback loop has helped us refine both safety and performance aspects.
When compared with alternatives such as phosgene (COCl2), carbonyl fluoride delivers slightly milder handling risks and does not form persistent, strongly acidic byproducts, which can corrode expensive equipment or require complicated neutralization. We routinely receive inquiries from customers seeking to transition away from more hazardous acylation agents, especially given evolving regulations on phosgene transportation and storage.
Another advantage of carbonyl fluoride is storage stability. Despite its strong reactivity, high-grade product can tolerate longer storage without the decomposition or polymerization problems seen in other specialty gases. Our team manages inventory based on predictive maintenance and freshness rotations, meaning that each customer receives cylinders with guaranteed pre-delivery checks rather than stockpiled leftovers.
Seeing how customers put COF2 to work reveals more than any data sheet can state. In the fluoropolymer business, it acts as a swift, precise fluorinating agent, offering key improvements in Teflon-type products, barrier coatings, or specialty refrigerants. In the pharmaceutical sector, researchers regularly discuss with us the importance of consistent batch-to-batch reactivity, since carbonyl fluoride stands as a preferred intermediate for synthesizing acyl fluorides, leading to new active pharmaceutical ingredients and advanced agrochemicals.
Laboratories at major universities order high-purity COF2 as part of programs searching for next-generation compounds, especially those where subtle differences in isotopic ratios and trace halogen content can steer research outcomes. Our role in supporting these discoveries comes through transparent reporting, documentation, and a willingness to answer specific technical questions from researchers—sometimes down to the raw data off our ion-specific electrodes.
Many users prefer carbonyl fluoride for its ease of disposal relative to alternatives. The gaseous byproducts can be neutralized through controlled scrubbing with alkaline solutions, avoiding the persistent environmental risks associated with chlorinated solvents. From our own on-site scrubbing systems, designed and built by our process engineers, we know it’s possible to combine efficiency with safety—but only by staying up to date with the latest advances in exhaust treatment and leak detection.
Working regularly with carbonyl fluoride means never taking shortcuts. Over the years, we have seen what can go wrong—leaky valves, off-spec cylinders, unexpected temperature fluctuations causing pressure spikes. Training each new operator to respect this gas’s toxic and corrosive nature goes beyond reading material safety sheets. Safety glasses, double gaskets, monitored loading bays, and remote actuation on fill lines become second nature when small oversights can have real consequences.
Unlike some competing products, carbonyl fluoride reacts vigorously with water and organic materials, which means a single splash or improper cleanout can cause strong acid formation and damage facility plumbing or personal protective equipment. All our filling stations and packaging rooms are equipped with secondary containment and acid-neutralization pits. Emergency procedures are not just written policies but subjects of regular drills—each new incident or near-miss feeding directly into process improvements.
We have watched global regulations tighten around specialty gases, particularly those with acute toxicity or potential for misuse. Recent restrictions on phosgene and even sulfuryl fluoride have pushed many in industry and academia to explore carbonyl fluoride as a safer alternative. Through direct interaction with inspectors and participation in responsible care initiatives, our manufacturing facility remains committed to transparent reporting and rigorous transport procedures.
Every year, we update our security protocols to comply with new standards for hazardous cylinder storage, labeling, and traceability. Our lot tracking relies on robust digital logs, and each batch carries a certificate that details analytical results—not just summary statistics. Close working relationships with bulk gas shippers and certified handlers reinforce the reliability of our supply chain from filling manifold to end-user laboratory.
Demand forecasts remain strong. Increasing application of fluorinated intermediates in electronics, pharmaceuticals, and agrochemicals underscores the need for suppliers who understand not just the paperwork, but the hands-on, day-to-day responsibilities involved in producing high-purity carbonyl fluoride safely and efficiently. As a manufacturer, our goal is to deliver product that meets real-world needs—without compromise, without cutting corners, and always with an eye to future regulatory and application developments.
A chemical manufacturer measures success not just by volume shipped, but by the trust built with those who depend on our products for critical processes. We see carbonyl fluoride not as just another specialty gas but as a tool that empowers research, manufacturing, and product development where reliability and response matter most. Our technical support team works side by side with customer engineers and laboratory staff, delivering hands-on troubleshooting when process upsets occur.
As more industries transition toward greener chemistries, the demand for consistent, well-managed intermediates like COF2 will only intensify. We recognize the tension between high reactivity and environmental safety, which is why our process design team continues to implement modular scrubbers, improved ventilation, and even small-scale on-demand generation systems for customers committed to limiting bulk gas storage.
We have learned that offering only what we can reliably make pays greater dividends than overstating capabilities or cutting quality control. Customer audits, third-party site visits, and in-depth quality agreements form part of our standard practice. Many of our industrial partners run their own incoming inspections; we have always treated this not as a burden, but as a direct opportunity to improve and extend the trust that forms the foundation of every chemical supply relationship.
In practice, COF2 and phosgene often get mentioned in the same breath—but operating differences matter. Phosgene, with its history and wide use as a chlorinating agent, excels in chlorocarbon production but carries higher toxicity and persistent regulatory scrutiny. Our users report shorter safety protocols and faster cycle times when switching to COF2, especially where acyl fluoride intermediates are required instead of acyl chlorides.
Sulfuryl fluoride, another gas with strong reactivity, lacks the selectivity that carbonyl fluoride brings to certain fluorination processes. Environmental profiles also differentiate these chemicals; carbonyl fluoride decomposes more predictably and, through our own waste-handling setups, we have shown it brings lower risk of long-lived residues when compared to many chlorine-based acylating agents.
Finally, process engineers routinely highlight how COF2 reduces the downstream burden on scrubbers and handling systems due to its rapid, predictable hydrolysis. By investing in improved detectors and automated cylinder handling, we have minimized leak risks without increasing operator workload—a real benefit in high-throughput commercial plants.
Stepping into the use of carbonyl fluoride brings both opportunities and responsibilities. For research chemists and process engineers unfamiliar with its handling, our advice comes from real-world use: start with small quantities, invest in cylinder-specific regulators and corrosion-resistant lines, and always test compatibility with system materials ahead of time. Install hydrolysis monitoring and maintain alkaline neutralizer supplies—even a brief exposure will generate hydrofluoric and carbonic acids, both potent enough to impact nearby equipment.
Before scaling up, run validation experiments based on your actual application, not just published reaction conditions. Keep in touch with suppliers who offer direct manufacturing knowledge instead of relying only on go-between distributors; often, those who produce from base materials can provide deeper insights into subtle issues affecting your process outcomes.
During initial rollouts at customer facilities, we stay on call to walk users through connection, leak checks, purging cycles, and first-run analytics. We have seen processes fail because of poorly selected O-rings or overlooked trace metals in feed lines—details that seem trivial until a reaction grinds to a halt or a GC trace shows an unexpected peak.
Manufacturing carbonyl fluoride directly, rather than acting as an agent or distributor, ties our reputation to every cylinder leaving the plant. We continually reinvest in analytical gear and staff training not just to meet minimum requirements, but to set new benchmarks for what users can expect in a specialty gas. Our production team shares a deep sense of responsibility; every feedback call, complaint, or process hiccup translates into team meetings, root cause analysis, and better practice.
Open feedback from customers matters to us. Whether it is about purity drift, moisture infiltration, or altered reactivity trends, we treat these discussions as collaborative opportunities to improve, not just as maintenance calls. Over the years, close partnerships with end-users have formed the backbone of our R&D decisions, from better valve sealing designs to investments in improved trace analytics.
We continue to refine and recalibrate not only to keep pace with industrial shifts but to anticipate future applications in fluorine chemistry, electronics, and high-value syntheses. Carbonyl fluoride stands as a reliable, manageable, and performant agent for a growing portfolio of advanced manufacturing. Our dedication to direct, responsive customer support ensures that every user, from seasoned plant directors to first-time research teams, receives the safest, most consistent product possible directly from those who understand its manufacture and use from the inside out.