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HS Code |
563769 |
| Chemical Name | 2,2,3,3,3-Pentafluoropropylamine |
| Molecular Formula | C3H4F5N |
| Molar Mass | 153.06 g/mol |
| Cas Number | 422-67-3 |
| Appearance | Colorless liquid |
| Boiling Point | 54-55 °C |
| Density | 1.38 g/mL at 25 °C |
| Refractive Index | n20/D 1.284 |
| Solubility In Water | Slightly soluble |
| Smiles | FC(CN)(F)C(F)(F)F |
| Inchi | InChI=1S/C3H4F5N/c4-2(1-9,5)3(6,7)8/h1,9H2 |
As an accredited 2,2,3,3,3-Pentafluoropropylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100-gram bottle of 2,2,3,3,3-pentafluoropropylamine is securely sealed in amber glass with a tamper-evident cap. |
| Shipping | **2,2,3,3,3-Pentafluoropropylamine** is shipped in tightly sealed containers designed for corrosive and volatile chemicals. It is transported under cool, dry conditions with compliant hazard labeling. Due to its potential reactivity and toxicity, shipping follows strict regulations, typically requiring packaging that prevents leaks and limits exposure to air and moisture. |
| Storage | 2,2,3,3,3-Pentafluoropropylamine should be stored in a cool, dry, well-ventilated area, away from sources of heat, flame, or incompatible materials such as strong oxidizers and acids. Keep the container tightly closed and properly labeled. Use appropriate chemical-resistant containers to prevent leakage or degradation. Avoid exposure to moisture and direct sunlight. Always handle with suitable personal protective equipment. |
Applications of 2,2,3,3,3-Pentafluoropropylamine in Industrial Manufacturing2,2,3,3,3-Pentafluoropropylamine offers targeted reactivity and unique fluorinated characteristics, enabling its use in highly specialized industrial synthesis. As the direct manufacturer, we supply this amine intermediate to leading downstream sectors where the compound’s physical and chemical features fit demanding application needs. Below are main application scenarios currently supplied in the global market. 1. Synthesis of Fluorinated Pharmaceutical IntermediatesProducers of advanced active pharmaceutical ingredient (API) intermediates deploy 2,2,3,3,3-pentafluoropropylamine during the construction of molecular scaffolds that require selective fluorine introduction. Its use supports target modification of nitrogen-containing rings and aliphatic chains in late-stage synthesis, which are critical steps in the development of antiviral, anti-inflammatory, and central nervous system drugs. The material enables direct nucleophilic substitution and amide coupling with minimal by-product formation, helping customers meet consistency and purity requirements of regulated pharmaceutical manufacturing. Industry compliance standards
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2. Production of Fluorinated Agrochemical IntermediatesManufacturers of next-generation crop-protection agents utilize this amine in the synthesis of herbicide and insecticide intermediates requiring specific fluorine configuration for field stability and biological target selectivity. The high electron-withdrawing nature of the pentafluoropropyl group supports stable linkage formation and optimizes biocidal profiles, fitting modern requirements for eco-friendly and persistent agrochemicals. Industry compliance standards
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3. Manufacture of Fluorinated Silane Coupling AgentsSuppliers of surface treatment chemicals apply 2,2,3,3,3-pentafluoropropylamine to modify silane coupling agents where high hydrophobicity and low surface energy are critical for durable coatings, adhesives, and composites. This compound introduces fluorinated alkyl groups by nucleophilic substitution or catalytic hydrosilylation, producing molecules that enhance chemical resistance and weatherability of industrial surfaces across automotive, aerospace, and construction applications. Industry compliance standards
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4. Manufacture of Specialty Fluorinated PolymersProducers of high-performance fluorinated polymers and copolymers use this primary amine to introduce active fluorinated side-chains into polymer backbones, tailoring chemical and thermal resistance for demanding end applications. The amine group supports controlled radical or step-growth polymerizations when reacted with acid chlorides or isocyanates, facilitating chain extension and block structure precision. Its integration improves dielectric properties, solvent resistance, and longevity in engineering plastics and films for electronics and membranes. Industry compliance standards
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Walking the production line and looking back on years of synthesizing fluorinated intermediates, 2,2,3,3,3-Pentafluoropropylamine marks a clear step forward from traditional amines. Handling this compound goes beyond the usual expectations of alkyl amines—a new challenge with unique reactivity due to its heavy fluorination. Chemists on our team recognize its sharpened chemical profile, and our engineers have tuned process parameters to reliably achieve high purity levels, since even minor off-specs can influence its performance downstream.
The molecular structure brings together five tightly-bonded fluorine atoms on a compact propyl backbone, finishing with a primary amine group. This combination does more than just alter the physical properties. The amine nitrogen remains accessible for reactions, while the attached fluoroalkyl chain resists oxidative or hydrolytic degradation, which sets it aside from non-fluorinated analogs. Having worked with less-stable amines in the past, we see the benefit not just in shelf life, but also in the kinds of transformations this molecule can support.
Producing a high standard for such a compound means controlling more than just the percentage of main component. Standard grades in our facility consistently exceed 99% GC area purity, as verified by our in-house certification. Volatility indices and amine value remain well within target range, because thermal stability is crucial both for storage and for further downstream use in manufacturing environments.
Moisture control remains one area that demands attention throughout the process. Even trace water can impact certain applications—such as those involving isocyanate chemistry or specialty pharmaceutical syntheses. From distillation columns to storage tanks lined with fluoropolymer coatings, we track water content below 150 ppm. Unlike resellers who may overlook transit degradation, we maintain records through Quality Assurance to support each delivery.
During scale-up transitions, larger reactors show a different thermal profile under pressure, so our technicians adjust agitation rates and distillation settings to preserve product quality at batch sizes well above 1000 liters. The presence of pentafluoro groups influences vapor pressure—a fact we've measured in actual plant conditions, not just predicted from data sheets. This type of hands-on experience informs the working limits of our storage and drum-filling systems, as well as our shipment recommendations.
Over the past decade, a steady rise in advanced engineering and pharmaceutical demand moved this product from a chemical curiosity into a workhorse intermediate. Fine chemical manufacturers often ask for our input on compatibility with specific end-uses, and our direct experience provides honest feedback about what this compound does well—and where traditional amines still have a role.
As a nucleophilic reagent, it remains unmatched in synthesizing fluorinated pharmaceuticals or crop protection agents. In these contexts, incorporating the pentafluoropropyl group into drugs or agrochemicals boosts metabolic stability and changes bioavailability in ways not seen with ordinary alkylamines. We have seen contract manufacturers standardize on this reagent for key building blocks, reducing their synthetic steps over previous alkyl sequence strategies.
Beyond basic synthesis, our development chemists have worked with silicone manufacturers who use this compound in producing fluorinated siloxane fluids. The end material stands up to harsh environmental exposure, resist solvents, and keeps dielectric properties stable across temperature swings. Our customers emphasize the difference it brings to lubricants and specialty fluids compared to regular alkylamine-functionalized siloxanes. More recently, we worked with researchers on polymer surface-modification, where this amine grants new properties not reachable through hydrocarbyl analogs.
Smaller volumes often go into analytical chemistry markets, especially surface derivatization or fluorinated ion-pairing agents. The efficiency with which the highly electron-withdrawing pentafluoropropyl group modulates interaction with biomolecules shows up in sharper peaks and cleaner backgrounds in both HPLC and GC assays. Chemical suppliers or traders who handle the compound after market rarely appreciate this subtlety, but our technical support routinely discusses this property with users working in R&D.
Many customers approach our team unsure whether to choose a simple propylamine or invest in a heavily fluorinated variant like pentafluoropropylamine. The answer goes straight to the core of our work: not every process calls for the expense of perfluorinated chains, but when downstream chemistry strips away less-hardy sidechains, the five fluorine atoms here make all the difference.
Compared to standard n-propylamine, you get a dramatic leap in both chemical resistance and lipophilicity. Our performance tests show significantly less degradation under oxidative or acidic conditions—conditions that break down unfluorinated analogs. This means your process can tolerate harsher environments without constant troubleshooting. Our process engineers see this reliability play out at every scale, from pilot to full manufacturing runs.
Another story crops up around volatility and safety. Engineers monitoring product storage note that pentafluoropropylamine shows a greater density and a lower flammability compared to most light alkylamines. Handling requirements change as a result, both in solvent recovery and in the types of container linings used. In our facility, we adapted vent systems and fume scrubbing protocols to safely accommodate vapor loads unique to heavily fluorinated organics—details traders rarely address.
Some chemists raise questions about reactivity patterns. The electron-withdrawing effect from five attached fluorines lowers the nucleophilicity of the amine, compared to open-chain analogs. This property opens specific selectivity windows when forming ureas, amides or interacting with electrophilic reagents. In complex molecule synthesis, a moderate step back in nucleophilicity broadens the control over substitution outcomes—our team provides guidance on tuning conditions or catalyst choice for these cases.
Solubility also takes new direction. While many light amines dissolve almost any organic phase, this compound prefers more polar, aprotic solvents. Our applications lab mapped solubility curves in many standard systems, so we're able to advise formulators right off the bat—heading off slow or incomplete reactions common with one-size-fits-all approaches.
From the manufacturing viewpoint, producing 2,2,3,3,3-Pentafluoropropylamine is very different from commodity amines. Sourcing upstream fluoroalkyl raw materials presents challenges in both availability and price volatility. Some years we see swings in the cost of precursors, tied closely to global fluorochemical supply and local regulations. Rather than chase the market, we invest in long-term supplier relationships and build inventory buffers. This keeps our product flow stable even when third-party resellers experience outages.
Throughout production, handling requires non-reactive surfaces. Stainless steel serves reliably in most amine lines, but pentafluoropropylamine's affinity for some elastomers and coatings guides our equipment selection. We specify high-purity transfer hoses, fluoropolymer gaskets, and continual inert gas blanketing. Plant technicians train specifically on these details, because experience tells us that a minor equipment misstep can contaminate thousands of liters.
Testing quality batch-by-batch gives us confidence in our output as well as guidance on how minute changes in process impact usage downstream. On the rare occasion an irregular impurity surfaces—perhaps due to a reactor anomaly or a change in raw material—we track the issue to root cause rather than blend or mask it with higher-volume intermediates. Our customers bring up reliability more often than price. Knowing each tank of product performs identically saves downtime and costly rework for their technical teams.
We also see rising regulatory and shipping restrictions for perfluorinated chemicals. The international landscape keeps changing, and governance differs when exporting to the EU, US, or Asian markets. We study these trends and build compliance into regular audits, documents, and batch-labeling. Our export coordinators track downstream reporting obligations and mold transportation protocols to fit new shipment rules.
As a manufacturer, we spend equal time listening as we do producing. Many inquiries come in from scientists struggling with a persistent side reaction or a purity issue with competitor material. Our technical support includes not just a sheet of specifications, but a back-and-forth tracing workup procedures, mixing sequences, and handling instructions. Our chemists understand the quirks associated with certain catalysts, and we've been able to diagnose—sometimes remotely—contamination sources or bottlenecks.
In one recent application, a fine chemical producer reached out about persistent yield losses in synthesizing a key pesticide intermediate. Input material from a different source contained trace acid left over from neutralization, disrupting their catalyst. By checking our own finished product acidity on every lot, and packaging under dry nitrogen, we eliminated this problem for them entirely.
Another repeated scenario: manufacturers trying to push reactivity windows in pharmaceutical innovation. The high-quality, consistent batch profile from our production process lets their chemists hit demanding selectivity, especially under conditions where minor compositional drift could wreck a five-step synthesis. Collaborating over years, we've custom-tailored product gradations, and supported scale-up efforts where bottled lab samples didn’t always perform in the plant.
We produce this product because real-world demand and technical challenges call for a specialty amine that performs in conditions where alkylamines fail. We track the actual experience of our customers—whether they're producing high-value fluorinated drugs, or working out surface modifications to polymers—and use that information to evolve both our own processes and our support strategies. No amount of market research replaces the value of a chemistry team who deals with the molecule at scale, every day.
Daily production brings new challenges and new ideas for refining both process yield and customer support. Much of what we learn—deciphering subtle fluorochemical behaviors or troubleshooting a slow-reacting batch—comes from hands-on work. As new applications for pentafluoropropylamine appear, especially in electronics or next-generation medical compounds, the bar for quality does not move downward. More rigor is needed, not less.
We invest in pilot studies, not just to keep up with competitors but to deepen our understanding of the compound’s potential. Our R&D division explores under-reported functionalizations and partners with universities to unlock next-wave synthetic strategies. This cross-pollination—from chemical manufacturing to fundamental research—feeds back into commercial production, making future runs more reliable, safer, and more innovative.
Handling perfluoroalkylamines safely and efficiently also means looking at environmental responsibility. Regulations tightening on perfluorinated substances demand a thoughtful approach. We operate robust abatement, incineration, and containment systems, with effluent monitoring programs exceeding local requirements. Over the past five years, we have cut emissions per ton of product in half, through better capture and streamlined production waste management. This commitment to stewardship stands right next to our commitment to product quality.
In the years ahead, we see continued growth in highly selective, high-durability intermediates. 2,2,3,3,3-Pentafluoropropylamine matches this demand. Our commitment as a manufacturer is rooted in solving genuine customer challenges with an unrelenting focus on quality, safety, and practical chemistry. The story of this compound—unlike the commodity amines of the past—emerges from both bench-scale trials and full-scale runs, changing as new needs arise across industries. That’s the experience we bring to every shipment leaving our gates.