|
HS Code |
475996 |
| Chemicalname | Cyclopropylamine |
| Molecularformula | C3H7N |
| Molarmass | 57.09 g/mol |
| Casnumber | 765-30-0 |
| Appearance | Colorless liquid |
| Boilingpoint | 56-58 °C |
| Meltingpoint | -45 °C |
| Density | 0.859 g/mL at 25 °C |
| Solubilityinwater | Miscible |
| Refractiveindex | 1.416 |
| Vaporpressure | 162 mmHg at 25 °C |
As an accredited Cyclopropylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cyclopropylamine is supplied in a 500 mL amber glass bottle, tightly sealed with a screw cap, labeled with hazard warnings and product information. |
| Shipping | Cyclopropylamine is shipped as a hazardous material, typically in tightly sealed steel drums or cylinders under inert gas. It must be stored and transported in a cool, well-ventilated area away from heat, sparks, and incompatible substances. Proper labeling and documentation are essential, with adherence to relevant regulations for flammable and toxic chemicals. |
| Storage | Cyclopropylamine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from heat, sparks, and open flames. Keep it away from strong oxidizing agents, acids, and moisture. Store under inert atmosphere if possible to prevent degradation. Properly label all containers and ensure access to appropriate spill and fire-fighting equipment nearby. |
Applications of Cyclopropylamine in Industrial ManufacturingAs a direct manufacturer, we supply high-purity Cyclopropylamine to specialized industries, where its unique chemical structure and reactivity support precise synthesis and formulation goals. Below, we outline the principal downstream sectors and detailed application scenarios where our Cyclopropylamine is integrated as a core raw material. 1. Pharmaceutical Intermediate SynthesisCyclopropylamine acts as a versatile building block in the pharmaceutical sector, especially in the synthesis of cyclopropyl-containing active pharmaceutical ingredients (APIs) and advanced intermediates. Its key role includes direct participation in amination, amidation, and ring-opening reactions that contribute to the molecular architecture of antiviral, antifungal, and central nervous system (CNS) agents. Our facility ensures stringent impurity control and batch traceability to meet quality audit demands from international drug manufacturers. Industry compliance standards
Typical usage ratio
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2. Agrochemical Active Constituent ManufacturingDownstream pesticide and herbicide producers incorporate cyclopropylamine for N-alkylation reactions and introduction of the cyclopropyl group in active molecules, directly affecting bioavailability and selectivity profiles. The raw material’s regulatory status requires traceability in multi-step synthesis, while the formulation stage demands precise charge control to prevent impurity carryover to the finished crop protection agent. Industry compliance standards
Typical usage ratio
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3. Pharmaceutical Impurity Reference Standard ManufacturingSpecialty laboratories use high-purity cyclopropylamine as a traceable source material for the synthesis of pharmacopoeial impurity reference substances, essential for HPLC, LC-MS, and GC analytical validation. Due to the strict criteria for standard materials, attention is placed on ultra-low inorganics, precise isotopic ratios, and certified documentation for regulatory audits. Industry compliance standards
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4. Specialty Polymer Modifier ProductionCyclopropylamine finds specialized use as a chain modifier and crosslinking agent in advanced polymeric materials production, particularly for engineering plastics and coatings that demand tailored impact resistance or thermal stability profiles. Downstream users precisely meter the amine during melt or solution polymerization to achieve targeted mechanical properties or chemical resistance in the final application. Industry compliance standards
Typical usage ratio
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5. Fine Chemical Synthesis for Protective Coating AdditivesDownstream fine chemical and specialty additive manufacturers select cyclopropylamine to synthesize corrosion inhibitor additives and anti-scaling agents used in industrial and marine coatings. Its reactivity allows for efficient generation of cyclopropyl structures that enhance adhesion properties and anti-corrosive performance in formulated coatings, with each batch subjected to application-specific laboratory validation. Industry compliance standards
Typical usage ratio
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Cyclopropylamine stands out in the lineup of amine chemicals. Making and handling this product in our plant is an exercise in precision and care. The team watches every reaction closely, manages the pressure inside reactors, and controls the temperature within a narrow band. What emerges is a compound with a clean, distinct odor and a volatility that you feel immediately. We work with drums filled with clear, colorless liquid, sometimes getting a whiff that reminds you why personal protective equipment is standard in this part of the facility.
Over the years, we have tweaked our process to minimize side products and keep purity above 99 percent. Choosing the right catalyst, calibrating each feed, and maintaining a strict schedule during distillation play a crucial role. It’s not just a matter of turning valves or monitoring gauges; efficiency comes from staying alert and understanding how tiny shifts in process trigger real changes in the final product. A seasoned technician knows the subtle difference in heat transfer or the resonance of the reactor when the solution is just about ready for transfer.
Cyclopropylamine doesn’t get the kind of glamour attention some specialty chemicals receive, but it fills an important spot in pharmaceutical and agrochemical synthesis. In our plant, most of the orders come from pharmaceutical firms, looking for it as an intermediate in active ingredient production. We also fill regular shipments for customers developing crop protection agents, where this amine brings that tight cyclopropyl ring to a molecular backbone, giving performance improvements over more common amines.
Factories use cyclopropylamine to build complex molecules that other amines just can’t provide. Cyclopropyl groups add rigidity and unique spatial arrangement, which can block enzymatic breakdown or alter biological activity. A chemist in drug development points out time and again how critical this backbone can be for regulatory approval or for a new compound’s shelf life in the field.
Every amine has its own personality. Ethylamine and isopropylamine, both more common and easier to handle, cost less and come with fewer regulatory headaches. On the workbench, cyclopropylamine resists simple hydrogenation or substitution – that cyclopropyl ring pushes back against reactivity – so it shows up where tougher chemical architecture matters. A lab manager told us, “Once we switched from isopropylamine to cyclopropylamine in our candidate, the selectivity in our synthesis improved and downstream yields went up, which saved weeks in our development timeline.”
Unlike linear or branched alkylamines, cyclopropylamine brings more than just a nitrogen base. The three-carbon ring tucks the molecule into a compact, highly strained structure. Chemical suppliers sometimes call it sensitive, and they’re not wrong: rapid temperature changes or poor storage conditions push impurities up, reduce shelf life, and force our QC team to intervene. In our experience, the difference from something like propylamine becomes clear after a week in a poorly ventilated storage room or during a summer shipment to a tropical site – our customers quickly learn to keep this product cool and tightly sealed.
Pharmaceutical partners almost always ask for cyclopropylamine exceeding 99 percent, water below 0.2 percent, and impurity profile reports. We didn’t always make that our plant standard, but too many tales of missed batch reactors, failed assays, and even rare product recalibrations showed us how these tight margins save time and money. If you ever had to halt a multi-ton campaign because of an undetected impurity, you develop a sharp eye during quality review.
Chemical engineers on our team have watched how lower-grade products disrupt crystallization and lead to costly purification steps. One time, a routine purity test flagged a trace of isopropylamine at 0.5 percent. That small contaminant wasted hours for our customer, leading to expensive analytic work and rescheduling. These aren’t theoretical problems – they’re headache-producing events that slow down research and manufacturing both. Responding with a reliable, high-purity product means less troubleshooting, fewer rejected lots, and happier scientists on the receiving end.
Cyclopropylamine needs careful attention to storage and movement. Even seasoned operators keep away from open drums, because the amine odor stings the nose and throat in seconds. Suitable materials for storage, including stainless steel or lined tanks, help keep water out and product stable. Our plant learned the hard way not to use low-grade rubber gaskets; they absorb cyclopropylamine and break down, leading to leaks and batch spoiling. Training for new personnel always covers glove selection, splash protection, and fitting ventilated respirators for transfer operations. Nobody on our team forgets the time someone used nitrile gloves for a transfer and wound up with inflamed skin – we now enforce heavier, chemical-resistant gloves throughout the loading dock.
Combining cyclopropylamine with oxidizing agents or strong acids causes dangerous reactions, so the team stores it well away from incompatible reagents. We dedicate specific lines and pumps, flushing each after a cycle to avoid cross-contamination. Our maintenance crew checks every seal and valve after heavy use, since small leaks can grow rapidly in the warmth and humidity of the processing rooms.
The rules around transporting and storing cyclopropylamine grow stricter each year. Compliance takes time, but the cost of a failed audit or a minor spill cleanup outweighs any shortcut. We work with sealed, coded container lots and track each shipment. Waste disposal procedures mean documenting every drum or flask that leaves the site, and making sure it ends in an approved incinerator, never local landfill. Our waste neutralization tank includes pH controls and remote monitoring; it’s an investment, but after years in the industry, too many neighbors have seen the cost of careless chemical handling.
We keep up with new GHS labeling, SDS adjustments, and training seminars set by health and safety regulators. Updating the way we label and track chemicals means the warehouse crew faces less confusion, and our bulk customers recognize the work that goes into eliminating surprises during delivery. Any chemical manufacturer who cuts corners in documentation is inviting regulators to visit—or worse, to shut them down.
Smaller customers coming to us from biotech incubators or research universities often need specialized support. Our team offers not just a product, but advice about solvent compatibility and tip-offs about safe in-lab handling. One university researcher asked for a starter kit in sub-liter quantities—normally, our setup is built for orders above a metric ton, but after some footwork, we developed a micro-scale packaging routine. As a result, we received feedback about product stability across dozens of syntheses, which circled back into our mainline quality control process.
Custom synthesis groups send us lists of demanding specs, sometimes for optical isomers or isotopically labeled cyclopropylamine. Although much of our work runs at scale, these custom projects challenge our chemists and keep the plant staff sharp. The hands-on requirements of isolating a pure S- or R-enantiomer, or building in a deuterium label, frequently mean setting aside a small vessel and working off-shift. The insight and rigor developed for these small lots often end up driving process improvements across the whole production line.
Cyclopropylamine looks simple on the formula sheet, but it doesn’t behave like linear or branched amines. In the plant, volatility isn’t just an abstract physical constant—it means staff need face protection and airflow even during short transfers. Our QC lab argues with production over trace impurities because 99.5 percent can make or break an entire batch for pharmaceutical partners. Every step, from raw material selection to tank cleaning, winds up tested by how much it controls non-linear residues.
For buyers used to large, basic amines, the higher cost of cyclopropylamine doesn’t just come from feedstock price, but from the steps we take to refine, monitor, and certify each shipment. Lower-volume products rarely justify dedicated process lines, but cyclopropylamine sales have grown steadily—our main pharma and agchem clients show us steady repeat business, not because they can’t find other amines, but because they need this specific ring structure for patented active compounds.
Cyclopropylamine orders rise and fall with the introduction of new crop protection chemistry and novel therapeutics. Each wave of regulatory change brings new demands, often timed with the cycle of patent expirations. Reading trade literature, it’s easy to see how many companies keep their next-generation actives under wraps, but they still call our technical service team for help refining synthesis at lab scale or scaling up for pilot batches.
More markets lately demand sustainable synthesis, pushing us to review every raw material and step in our process. Bio-based sources for precursors don’t always match the quality or reactivity of petrochemical ones—we carry out pilot runs to see what changes before switching suppliers. Some large buyers run life cycle analyses on finished amine-based active compounds, asking for energy-use tallies and waste data with each shipment. We’ve tackled their requests through investments in heat recovery, solvent recycling, and in-process analytical monitoring.
Customers in regions with hot, humid climates request insulated containers and shorter shipping windows, which means close coordination with logistics partners and more monitoring of each stage in the chain. We worked on a case with a tropical processor who transitioned to cyclopropylamine for a new agrochemical. They lost a quarter of their first shipment to vented drums from improper storage—our team responded with double-sealed barrels, tight humidity control, and hands-on training for the client’s warehouse crew, which solved the problem and kept their product development on track.
Problems with cyclopropylamine don’t just exist for untrained personnel—they come from the compound’s very structure and chemistry. We help customers diagnose batch inconsistencies caused by trace water or slow hydrolysis, especially in older or frequently opened drums. Routine sampling every month cuts spoilage rates, but only if combined with airtight storage in a cool, shaded space. Field feedback loops taught us to design better venting systems for our drums, empowering end users to transfer without inviting air or moisture into the supply.
End users sometimes call about fouling on glassware or mysterious by-products during scale-up. Drawing from the hundreds of pilot tests we’ve run, we recommend careful pH tracking and staged addition of sensitive reagents. We’ve sent production staff onsite to a customer’s facility to troubleshoot blocked reactors and explained how minor changes in plant piping led to unseen build-up. Only years of regular exposure to the subtle behavior of cyclopropylamine provide a practical sense of what to watch for and how to adapt protocols on the fly.
The learning curve for cyclopropylamine stretches beyond academic training. Lessons compound from the first spilled flask to the thousandth batch processed. Understanding the raw, volatile odor becomes more than an inconvenience once you see how it signals purity or decay. Investing in the time to open a drum and verify not just the certificate of analysis but the look and smell trains the nose and eye of a production chemist. Our staff rotates through roles in the plant to give everyone a richer sense of the entire journey, from synthesis to final shipment.
Skilled handling matters at every step. Plant engineers value a process that runs within narrow safety margins, but experienced hands provide the judgment you can’t outsource—knowing when a reading is off, when a color shift hints at trouble, or when a gasket needs replacement. Mistakes happen less often in teams that have turned cyclopropylamine production into a habit, a culture, and a source of pride.
Consistently delivering a high-quality product builds relationships in the chemical industry that last for decades. Customers returning with more complex requirements, changes in specification, or demands for faster turnaround challenge us to renew our commitment to quality and reliability every day. The technical team maintains feedback channels, so improvements made in our plant can reach our customers before a minor issue grows expensive.
Drawing from cycles of trial, correction, and hard-won knowledge, we continue to build and refine systems specifically for those using cyclopropylamine in demanding applications. Each lot reflects not just compliance and checklisting but layers of insight built by people working side by side in a tough, ever-changing environment.
The pace of change in chemical manufacturing continues to increase. New regulatory requirements pop up, researchers devise fresh applications, and downstream partners stretch the use of cyclopropylamine in ways that challenge traditional synthesis. Our team constantly reviews new literature, regulatory bulletins, and customer feedback, using each as a springboard for process changes. The industry expects cleaner products with less waste, lower environmental impact, and full traceability from plant floor to customer site.
We keep the lines of communication open with customers ranging from bulk pharma firms to startup biotech and precision agrochemical producers. Requests sometimes stretch our capabilities—demanding higher purity, faster delivery, or new packaging sizes. By investing in both technology and people, recognizing the years of accumulated experience, and staying responsive to real issues in the field, we continue to support users looking for high-performance cyclopropylamine that makes a practical difference in their work.