|
HS Code |
862482 |
| Name | Methyl Pentafluoropropionate |
| Cas Number | 422-44-6 |
| Molecular Formula | C4H3F5O2 |
| Molecular Weight | 178.06 |
| Appearance | Colorless liquid |
| Boiling Point | 91-92°C |
| Density | 1.517 g/cm³ |
| Refractive Index | 1.289 |
| Flash Point | 28°C |
| Solubility | Insoluble in water |
| Smiles | COC(=O)CF2CF3 |
As an accredited Methyl Pentafluoropropionate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500 mL amber glass bottle with secure screw cap, labeled with chemical name, hazard symbols, and manufacturer details for Methyl Pentafluoropropionate. |
| Shipping | Methyl Pentafluoropropionate should be shipped in tightly sealed containers under cool, dry conditions, away from heat and incompatible materials. The chemical is typically classified as a hazardous material and must comply with international and local regulations. Proper labeling, documentation, and usage of UN-approved packaging are required to ensure safe transportation. |
| Storage | Methyl Pentafluoropropionate should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers. Store at room temperature, away from direct sunlight. Ensure proper chemical labeling, and avoid moisture exposure. Use appropriate PPE when handling, and follow all relevant safety guidelines and regulations. |
Applications of Methyl Pentafluoropropionate in Industrial ManufacturingMethyl Pentafluoropropionate plays a crucial role in specialty chemical manufacturing. Its unique reactivity and physicochemical properties make it valuable across multiple targeted downstream industrial sectors. As an experienced producer, we ensure quality and process expertise in every supplied batch to support advanced manufacturing performance. 1. Fluorinated Agrochemical Intermediate SynthesisFluorinated derivatives from this raw material enable synthesis of modern crop protection agents. Manufacturers utilize its fluorination profile to build high-performance herbicides and insecticides. Its strict purity and trace residual limits significantly impact batch reproducibility and regulatory acceptance of agrochemical actives. The intermediate enters esterification or amidation steps in patented pesticide formulations. Careful monitoring of inclusion ratios helps maximize reaction efficiency and minimize fluorinated by-product formation, which is critical for both yield and environmental standards compliance. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Pharmaceutical Intermediate for Antiviral CompoundsThis material serves as a synthetic building block for APIs requiring strong electron-withdrawing substituents. In antiviral drug manufacturing, it supports route optimization for fluoroester and fluorocarbon-containing molecules. High purity and batch consistency protect against contamination risks during multi-step synthesis. Manufacturers engineer integration of this intermediate during key coupling reactions, where kinetics and selectivity are sensitive to trace moisture and impurity contents. Emphasis on validated cleaning procedures and in-process analytical control guarantees suitability for late-stage GMP manufacturing. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Electronics Industry Specialty Solvent PrecursorThis compound functions as a targeted precursor for the synthesis of high-performance fluorinated solvents used in electronics cleaning and photoresist processes. Its precise volatility range and low-leaching behavior allow downstream manufacturers to control solvent composition and purity. Incorporation in secondary synthesis steps supports the creation of photoresist strippers, microelectronic wafer processing aids, and degreasing blends. Facilities invest in closed-system solvent handling to minimize emissions and contamination, applying detailed quality checks on trace metal and halide content at every batch. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Polymer Fluorination AgentThis raw material provides a controlled source of pentafluoro groups for the synthesis of specialty fluoropolymers and copolymers. Downstream producers select this intermediate to introduce desired surface energy, chemical resistance, and dielectric properties in high-value plastics. The precision of its fluorination directly affects polymer performance, making feedstock traceability and impurity control mandatory. Process engineers add the compound at defined stages in continuous or batch polymerization lines, using online analysis to track incorporation and residual monomer levels in the finished polymer matrix. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Methyl Pentafluoropropionate prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Every day on the production floor, the challenges in custom fluoro-organic synthesis reveal how Methyl Pentafluoropropionate (CAS 422-44-2, structural formula: CF3CF2COOCH3) fits right into the toolkit for modern organic and material science. Our facility specializes in crafting high-purity batches, supported by real-time analytical control at each batch stage. Over years of production, we’ve learned that solvent compatibility, stability under a wide pH range, and exacting purity make a difference that chemists notice downstream.
Whether it’s custom kilogram-scale runs for a pilot plant or supplying metric ton lots for established production lines, the value we add comes from a clear understanding of how this molecule integrates into research projects and manufacturing workflows. Methyl Pentafluoropropionate brings a fluorinated backbone and an ester functional group to a field hungry for new building blocks, yet not every ester delivers in the same fashion.
From the vantage of handling this material in our reactors and distillation units, key distinctions emerge between it and the more conventional methyl esters. The presence of five fluorines on the propionyl moiety gives the compound a distinct chemical profile—both in reactivity and physical behavior. Compared to common methyl esters, Methyl Pentafluoropropionate resists nucleophilic attack, retains its properties under harsher thermal conditions, and remains highly volatile under reduced pressure. We see fewer issues with by-product formation during large-scale operations and rarely encounter the off-odors or hydrolysis difficulties associated with standard non-fluorinated esters.
Direct feedback from our synthesis labs highlighted that this compound cleans more efficiently after reactions, with noticeably less residue left in glassware and production equipment. Its low surface energy and superior solubility in a wide range of organic media mean that extractions proceed smoothly, saving on costly repeated washes. For teams engaged in scale-up, this translates into meaningful cost and time savings, especially when downstream purification becomes less of a bottleneck.
Each batch coming off our lines undergoes thorough quality checks—GC analysis, water content by Karl-Fischer titration, and trace metal testing—to ensure the methyl ester remains within the target purity range, commonly not less than 99%. In recent years, increased requests for sub-ppm moisture specifications led us to refine our drying and packaging processes. As a manufacturer, we run quality and logistics together. If you run continuous syntheses or require large-container packaging under inert gas, our logistics team coordinates airtight drums and ISO tanks directly from our loading docks.
Physical characteristics that stick out in day-to-day use: even at ambient temperatures, Methyl Pentafluoropropionate forms a clear, colorless liquid, free of the yellow hue that sometimes marks impure fluorinated esters. Its low viscosity and low boiling point (measured at around 65-67°C) make for rapid evaporation. We’ve adopted specialized closed-filling systems to minimize vapors on the shop floor, providing a safer working environment for operators. Freight and storage benefit from the chemical’s non-corrosive behavior in typical steel and fluoropolymer-lined containers.
Interactions with formulation scientists and process engineers, both domestic and international, shape our approach. Methyl Pentafluoropropionate carves out an important niche in agrochemical synthesis, electronics cleaning, specialty coatings, and active pharmaceutical ingredient (API) intermediate development. What we see time and again in customer trials: improved selectivity in nucleophilic substitution and acylation reactions when compared to non-fluorinated methyl esters. Fluorinated intermediates like these lead to enhanced process yields and often simplify product isolation, especially when working with volatile, sensitive, or air-reactive partners.
We regularly collaborate with research teams developing next-generation pesticides. Unlike some longer-chain or bulkier fluorinated esters, Methyl Pentafluoropropionate offers a unique trade-off—its methyl group keeps molecular weight low and reactivity manageable, but its fully fluorinated propionyl chain brings the desired electron-withdrawing power. This combination influences selectivity and allows better incorporation of fluorine atoms into target lead compounds, especially where bioactivity depends critically on metabolic stability.
Colleagues in the electronics industry lean on the solvent’s volatility and rapid residue-free drying. Its ability to clean delicate assemblies without leaving ionic or particulate contamination reduces product failures and boosts throughput. We continue to receive feedback from device fabrication teams highlighting the performance edge gained by swapping to Methyl Pentafluoropropionate in cleaning and surface preparation protocols, especially compared to hydrocarbon and partially fluorinated alternatives.
Conversations with industrial chemists in fluoropolymer and specialty fiber production underscored the value of a pure, non-reactive methyl ester input. Our scale-up team, involved from synthesis to drum-filling, understands the weight of delivering consistent material when adjusting formulations or optimizing reactor parameters. Even minor fluctuations in feedstock purity or water content can introduce process variability. Our constant monitoring of batch chromatograms, along with hands-on solvents blending experiments, provides direct assurance that users receive predictable performance every time.
In our own application studies, Methyl Pentafluoropropionate acts as a dependable C3 fluorinated ester for chain extension and functional group modification. Process chemists note its clean loss of the methyl group during methanolysis and transesterification. Its predictable behavior under classical reforming and coupling conditions supports both laboratory screening and full-scale plant optimization. Having produced multi-ton lots for multinational partners, we’ve seen scale not diminish its performance or reliability.
Handling fluorinated chemicals demands serious attention, both from a safety and environmental perspective. Decades of experience with these compounds have shaped our approach. Methyl Pentafluoropropionate, like all low-molecular fluorinated esters, produces vapors with a sharp odor. We invested in local exhaust systems and rigorous monitoring—personal monitors are standard gear on our filling lines. Based on worker input, we tailored procedures to minimize open handling and enhance containment, which led to a noticeable drop in odor-related complaints and short-term exposure levels.
Fluorinated esters resist breakdown by hydrolysis and oxidation, so we maintain a robust waste management program, focusing on recovery and proper thermal destruction where reuse isn’t an option. This compound shows low acute toxicity based on published studies and in-plant observations, but we maintain strict protocols for PPE and spill response, reflecting lessons learned from historical mishaps with similar materials. Direct feedback from crews led us to streamline drum handling, employ new grounding practices, and avoid pump types that might degrade seals or gaskets.
Our production staff works alongside technical service teams to fine-tune every aspect of manufacturing and delivery. For example, several years ago, a spike in customer moisture complaints led us to rebuild part of our distillation system with upgraded glass internals, eliminating micro-leaks and ensuring argon blanketing from endpoint to fill. These changes came directly from analysis of on-site failures, not external audits. Whenever a specification or customer need changes, we adjust not by layering on paperwork, but by retraining teams and refitting equipment on the ground.
Daily dialog across shifts, regular review of batch records, and plant walk-throughs help pinpoint bottlenecks and unnecessary complexity. By rooting out inconsistent sampling or uneven dehydration, we reduce the risk of surprises after shipping. This discipline underpins every drum and pallet leaving our site. A few years ago, a partnership with a pharmaceutical startup highlighted the subtle influence of microimpurities in synthons; they identified low-level contaminants we traced back to supplier inconsistencies in a minor reagent. We acted immediately, switching to an in-house manufactured grade, and now make that purity data available to end-users who want traceability.
The chemical marketplace offers dozens of ester and acid fluoride options, yet as synthesis programs trend toward increased fluorine incorporation—seeking improved membrane permeability, oxidative stability, and biocompatibility—the unique balance Methyl Pentafluoropropionate provides draws repeat selection. Unlike heavier perfluoroalkyl esters, it doesn’t slow reaction kinetics or complicate downstream saponification. The methyl ester cleaves under mild conditions, facilitating both classic and modern coupling chemistries.
End-users in fragrance intermediates commented that alternative perfluorinated esters often colored their product or spiked residual solvent content. Our direct supply chain and monitoring eliminated these issues. During scale-up, relevant differences become clear: bulkier esters lag in reactivity, sometimes stalling at partial conversion. With Methyl Pentafluoropropionate, the chemistry proceeds cleanly, matching model predictions and saving hours on workups.
As producers, we know that every customer situation is unique. Rigidity, both in supply chain and in technical support, only adds risk and cost. With this molecule, we support contract packing, provide real-time shipment tracking, and maintain reserves for high-priority users coping with sudden spikes in demand. Our process engineers maintain a running log of each batch, allowing fast root-cause analysis if any deviation surfaces. Accessible support makes for faster troubleshooting and more resilient supply on the customer’s end, especially when project timelines or product specs shift without warning.
We regularly share manufacturing insights with collaborators running process trials. Recently, a user experimenting with catalytic fluorination noted that even lower-concentration lots of competitive material failed to deliver the tight control over fluorine content their method demanded. Shipments from our facility, with documented purity, let them control batch-to-batch variation, streamlining their run planning. This isn’t just paperwork—our lab head spent a full day on-site with their team last year, advising on tank cleaning and solvent recovery cycles.
Innovation doesn’t occur in a vacuum. Many of the breakthroughs our customers achieve with Methyl Pentafluoropropionate rest on our steady line of supply, technical troubleshooting, and willingness to tweak process variables upstream. When a synthesis route proved moisture-sensitive, we adopted a fresh approach to solvent exclusion. We developed and deployed a new venting manifold based on in-house engineering expertise. Although these upgrades meant a round of late-night trials and more operator training, the customers’ higher yield and cleaner product justified the effort.
Facing rising regulatory and environmental pressure, especially in the EU and North America, we keep dossiers and safety data updated, work with external auditors when standards change, and maintain full waste-chain traceability through trusted local partners. As a direct manufacturer, we absorb daily lessons — from unplanned and planned shutdowns, to raw material price swings — and apply them, not for minimal compliance, but to ensure customers can ramp up and scale out their own production with confidence.
Supplying Methyl Pentafluoropropionate tests our team’s attention to detail every week. Batch release only happens after equipment checks, paperwork review, and a round of cleaning. There’s no shortcut—without putting hands on valves and running fingers over seals, the risk of contamination stays high. Trusting real data over assumptions prevents headaches down the line.
Working closely with pilot-plant chemists and process engineers keeps our team sharp; we learn from unexpected outcomes and put those lessons back into both formulation and delivery. It’s comfort to hear that batches arriving on-site perform predictably, cut down on unplanned troubleshooting, and maintain research pace. By holding to those standards, batch after batch, we become more than a supplier. We step into a role as project stakeholders — measuring success not in drums shipped, but in breakthroughs shared.
The value of direct manufacturing extends beyond supply assurance. Equipment operators, process chemists, and logistics planners walk the floor daily to verify performance, spot potential mixing issues, and keep waste generation to a minimum. Full integration from synthesis reactor to packaged product lets us adapt fast to changing requirements, improve operator training, and streamline lab-to-line communications.
Direct involvement at each scale-up step—raw material selection, in-plant blending, logistics planning—ensures that each kilogram delivers the same high standards as the first. Contractors, distributors, and labs know who to call for technical input, not just an order number.
Customers, research partners, and our own employees drive forward continuous improvement. Requests for new grades, handling solutions, and environmental safeguards shape our pipeline of upgrades. By remaining close to both chemists and process engineers, we capture subtle shifts in application demand and manufacturing challenges, adjusting production accordingly.
Producing Methyl Pentafluoropropionate means more than executing a recipe. It calls for systematic analytic scrutiny, direct engagement on formulations, and investment in operator safety. Each improvement, backed by our practical experience delivering real-world lots, protects both progress and people. For labs or facilities where fluorine-count matters, and where cleanliness affects both equipment life and synthetic outcome, our batches offer a trusted solution. From daily shop floor management to rapid response for urgent projects, our approach focuses on delivering not just a molecule, but a tangible advantage.