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HS Code |
349581 |
| Name | Cyclopropylmethyl Chloride |
| Chemical Formula | C4H7Cl |
| Molecular Weight | 90.55 g/mol |
| Cas Number | 5911-08-0 |
| Appearance | Colorless to yellowish liquid |
| Boiling Point | 104-106°C |
| Melting Point | -78°C |
| Density | 1.045 g/cm3 |
| Refractive Index | 1.445 |
| Flash Point | 7°C |
| Solubility In Water | Insoluble |
| Odor | Sharp, chloroform-like |
| Storage Conditions | Store in a cool, dry, well-ventilated place away from sources of ignition |
As an accredited Cylopropylmethyl Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cylopropylmethyl Chloride is packaged in a 500 mL amber glass bottle, tightly sealed with a screw cap, and clearly labeled. |
| Shipping | Cyclopropylmethyl chloride should be shipped as a hazardous material, following all relevant regulations. Package in tightly sealed containers, protected from physical damage, ignition sources, and moisture. Clearly label packages with appropriate hazard symbols. Store and transport in cool, well-ventilated areas. Handle with personal protective equipment to prevent exposure and leaks. |
| Storage | Cyclopropylmethyl chloride should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. It should be kept separate from strong oxidizers and acids. Proper labeling and secure storage to avoid leakage or accidental contact are essential due to its flammable and irritant properties. |
Applications of Cylopropylmethyl Chloride in Industrial ManufacturingAs an experienced manufacturer of specialty chemical intermediates, we supply cyclopropylmethyl chloride (CPMC) to leading processors across advanced pharmaceuticals, agrochemicals, polymer additives, and fine chemical synthesis. Below, we detail specific real-world uses, industrial standards, and integration procedures from our customers’ downstream operations. 1. Pharmaceutical Intermediates ManufacturingCPMC serves as an alkylating agent in the synthesis of active pharmaceutical ingredients (APIs), especially those involving substituted cyclopropyl groups. Medicinal chemists utilize CPMC for constructing proprietary molecules targeting central nervous system disorders and antiretroviral drugs. In these API pathways, the material undergoes strict validation for residuals and process impurities, supporting cGMP operations at scale. Its high reactivity with nitrogen heterocycles and organometallic nucleophiles requires controlled addition and constant monitoring for batch-to-batch consistency. Industry compliance standards
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2. Agrochemical Active SynthesisLeading agrochemical producers use CPMC as an intermediate for synthesizing both insecticidal and herbicidal actives, especially those featuring cyclopropylmethyl substituents for increased bioactivity and metabolic stability. The compound integrates directly into key carbon backbone-building steps, allowing for selective mono-alkyl substitution on phenols and amines. Regulatory agencies require detailed impurity profiling and traceability for each lot utilized in crop protection pathways. Industry compliance standards
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3. Polymer Modifier and Specialty Resin SynthesisCyclopropylmethyl chloride enters the manufacturing lines for high-performance resins and plastic additives, where it provides chemically bonded cyclopropyl functionality. Such modifications enhance the glass transition temperature and solvent resistance in specialty polyesters, epoxy cure agents, and flame retardant formulations. For these scenarios, strict end-use applications dictate residual monomer and impurity thresholds, guided by industrial polymer standards. Industry compliance standards
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4. Fine Chemical Synthesis & Custom IntermediatesContract manufacturers and specialty chemical developers employ CPMC for constructing unique cyclopropylmethylated motifs in fine chemicals, dyes, and analytical standards. In these routes, precise reactivity allows chemists to control regioselectivity during alkylation, with detailed process controls for minimizing by-product buildup. Each project may necessitate tailored analytical methods and release criteria, generally established under customer-specific quality agreements. Industry compliance standards
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5. Advanced Material Science ResearchUniversity and corporate R&D labs utilize CPMC for innovating new cyclopropyl-based scaffolds in molecular electronics, photoresist developers, and supramolecular chemistry. Handling under inert conditions and controlled batch size enables experimenters to study selective reactivities, chain extension, and polymer backbone insertion. Most research projects require certification of purity, GC and NMR documentation, and traceable COA documentation. Industry compliance standards
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Cyclopropylmethyl chloride stands among the more specialized compounds we develop, serving as a key piece in the puzzle for pharmaceutical intermediates and fine chemical synthesis. By steering the chloromethylation of cyclopropane derivatives, our workers and engineers interact with these compounds daily, refining yields, improving consistency, and enforcing process safety. Not many outside the plant truly appreciate how much handling materials like this calls for vigilance at every stage—from the purchasing desk, along the pipeline, to the final storage drum. The controlled conversion and careful distillation keep impurities at bay, as trace water or byproducts can spell trouble for customers charting out syntheses downstream.
Our cyclopropylmethyl chloride appears as a clear, colorless liquid, with a pungent odor reminiscent of many chlorinated hydrocarbons. Each batch rolls off the line with targeted active ingredient content controlled by gas chromatography, a tool our quality analysts rely upon. Specific gravity and purity remain pivotal to both buyers and our operators since subtle shifts in composition often lead to unwelcome surprises during chemical reactions. We pursue a content range that gives our partners exactly what their syntheses depend on, understanding that even slight off-spec shipments cause lost time, rework, or poor reaction selectivity.
Any talk of chlorinated cyclopropanes would be incomplete without considering risks. We have learned over years of production that safe handling is not just about regulatory boxes to check. As soon as the crude reaction mass forms in our reactors, we watch for pressure surges and unplanned exotherms. On the production floor, leaks and inhalation risk anchor our preventive controls. Every shift follows a tight script—from instrument checks to routine sampling—making sure no hydrogen chloride escapes containment. This vigilance continues into packaging, where we select fluorinated-lined drums and design shipping plans that minimize exposure.
Once in the hands of a chemist, cyclopropylmethyl chloride carries reactivity that demands respect. Our technical team exchanges notes with formulators about the hazards—its alkylating nature and ability to form strong hydrochloric acid solutions in moist air. The chemistry does not leave room for shortcuts. In the world beyond our gate, it transforms into pharmaceutical building blocks or specialty agrochemicals, yet always begins in a segregated, well-ventilated enclosure. We devote resources to detailed handling guidelines, real-world spill drills for our crew, and offer best practice guidance to our users.
Many manufacturers pick cyclopropylmethyl chloride for its unique pathway. Its three-membered ring speaks to demanding synthetic targets—few other alkyl chlorides insert this kind of strained carbocycle into larger molecules. Our customers, often working on complex intermediates for the latest antivirals, specialty materials, or polymer precursors, value this selectivity. Cyclopropyl units dodge metabolic breakdown and increase potency in medical candidates. Some alternatives, such as benzyl chloride or n-butyl chloride, lack the tension and reactivity of the cyclopropyl system. Adopting our product means backing advanced synthesis with a solid supply chain built on strict quality discipline.
Pharmaceutical research teams reach out to us for this product when translational science calls for a robust, pure alkyl chloride. We keep discussions open to help with technical bottlenecks or share insights after piloting new process runs. Years on the plant floor give us a vantage point—seeing how a slight difference in isomer or water content shapes what comes out of a customer’s reactor. This feedback loop of inquiry and problem-solving helps everybody keep ahead of purity trends and regulatory demands. Sometimes, our process knowledge has solved previously stubborn yield drops or downstream purification headaches just by sharing what we have observed during production scale-ups.
Every batch we dispatch carries our longstanding attention to purity and identity. Analysts in our on-site lab use state-of-the-art chromatography and titration, setting aside any lot below agreed thresholds. Here, purity reaches as high as commercially feasible, with specific targets recurring around 98 percent or higher. Moisture and residual organic contaminants receive equal scrutiny. The model we offer stays consistent year to year, reflecting our confidence in the process rather than chasing shifting catalog or product number gimmicks.
Temperature stability and resistance to polymerization arise as recurrent themes. Customers working with sensitive pharmaceuticals or agrochemical intermediates appreciate minimal peroxide or conjugated diene content, since unstable additives can spell trouble even in minor concentrations. Our packaging team selects drum liners and closures to keep air, moisture, and dust at bay, preserving the features users rely on. Temperature logs and shipment checks confirm that our product arrives unchanged, ready to fit seamlessly into our customers’ existing synthetic lines.
Differences from alternatives in the market are not just technical. Some suppliers rely on aggressive purification or over-processing, stripping away not just impurities but subtle cues that signal a healthy batch. We have resisted such over-handling, preferring to partner with users and focus on responsible throughput, high conversion yield, and clear documentation. Over decades, consistency has ranked higher in our feedback than any other trait—it simplifies process scale-up and forecloses unpleasant surprises in new applications.
Operating under increasingly strict chemical safety and environmental legislation, we have built reporting and audit frameworks to match. Our compliance team tracks updates and navigates new obligations from both national and international agencies. Each container carries declaration and test documentation, matching transparency our largest clients now demand. Our facility’s environmental footprint receives continuous updates, where energy efficiency and emission control means as much to us as meeting specification. Our synthetic routes select feedstocks with lower impurity risk and improved downstream recyclability.
Buyers in regulated sectors—pharmaceutical, electronics, or advanced material science—frequently audit our processes in person. We welcome these reviews and see them as opportunities to showcase the care our teams put into every run and shipment. After all, in chemical manufacturing, consistency counts, but shared trust between producer and user underpins every successful partnership. If any batch triggers even minor deviation alerts, our records and trace samples ensure quick resolution, supporting the reliability that development chemists and scale-up engineers depend on.
Inside the walls of many pharmaceutical and specialty chemical labs, cyclopropylmethyl chloride helps shape active pharmaceutical ingredients, molecular probes, or performance polymers. From the earliest laboratory stages to multi-ton commercial supply, users draw on its strained ring, which resists many common modes of degradation or enzymatic breakdown. For medicinal chemistry programs, the ring provides metabolic stability—a rare quality that influences everything from dosing regimens to safety margin. This unique aspect means our QC and technical service teams spend long hours documenting exactly which trace byproducts matter most, and tune every process improvement toward real molecular performance.
Synthetic routes featuring our product often substitute for longer, less efficient, or hazardous chemical sequences. Stakeholders see better atom economy, cleaner reactions, or less hazardous waste when switching to cyclopropylmethyl chloride over less specialized alternatives. In cross-coupling, alkylation, and substitution chemistry, the compound’s manageable boiling range and reactivity shine. For materials science, cyclopropyl-containing polymers demonstrate physical characteristics otherwise hard to match, such as rigidity and transparency. Our technical group keeps records of customer feedback, feeding new insights into process feeds, analytical tests, and safety enhancements. This loop brings product design closer to actual field experience, rather than abstract marketing claims.
Chemical processes run smoother when raw materials show fewer unexplained surprises. We have seen clients stuck by poor reactivity or discoloration from off-grade cyclopropylmethyl chloride. Getting real feedback, we retraced the course to our raw material sourcing. Switching solvent grades, optimizing distillation, and embedding rigorous moisture checks into the QC steps shifted outcomes—yield drift dropped, unwanted side reactions slowed, and our partners achieved higher reaction conversion.
Problem-solving rarely stops at the property checklist. Clients sometimes face flammable vapor issues, glassware damage, or even unusual precipitate formation during scale-up. Our field engineers dig in, sometimes flying out or connecting remotely, drawing links between minor spectral signals and stubborn process snags. By maintaining a bench-to-plant relationship, we see trends before they escalate into critical problems. This heartbeat of ongoing collaboration defines how we see our job—keeping chemistry predictable, repeatable, and aligned with what researchers and production managers want.
Unlike simple linear or aromatic chlorinated hydrocarbons, cyclopropylmethyl chloride brings a strained ring—an architectural motif that few competitors offer. This translates directly to reactivity and selectivity. In alkylation chemistry, its unique ring structure opens access to molecular designs unreachable with more traditional n-chlorinated chains or benzylic chlorides. Pharmaceutical and specialty chemical development teams cite this advantage when selecting their alkylating agents.
Working in the plant, we see that producing strained carbocycles at scale carries costs—both in managing reaction hotspots and controlling the final product’s stability. Still, the rewards surface in cleaner reactions and high-value intermediates, as feedback from our customers demonstrates. Fewer byproducts, less color formation, and easier product purification make a material difference for end users. When storage time stretches out or transport runs hit unexpected temperature spikes, the performance of cyclopropylmethyl chloride holds up better than some more labile alternatives.
Out on the shop floor, differences between batches of cyclopropylmethyl chloride and other chloroalkanes are clear even to experienced operators. While both require diligent temperature and moisture management, cyclopropylmethyl chloride responds better to vapor containment and less aggressive neutralization steps. This reduced tendency to form heavy residues or unwanted tars simplifies plant hygiene, reducing downtime for cleaning and allowing longer continuous operation.
Chemical manufacturing values tradition, but must continuously improve. What worked well a decade ago rarely fits emerging quality standards or growing technical demands. Our workforce sees cyclopropylmethyl chloride both as a legacy product and an evolving one. On-site, our teams monitor reaction parameters, fine-tune filtration hardware, and update analytical protocols in response to trends we see develop in partnership with research teams. We learn from batch deviations, then encode best practices into updated production logs and safety training. Each tweak, taken in the context of tens or hundreds of process runs, adds up to sharper product consistency and improved operational uptime.
Balancing efficiency and safety, our process improvements often follow incident reviews or client experience. For instance, minor impurities that once passed without comment now raise flags for pharmaceutical partners engaged in new molecule development. By tightening headspace control, switching to purer solvents, or investing in higher-grade stills, we filter out residual solvents or ring-opened impurities before they reach customer hands. No change happens in a vacuum—before launching any process tweak, our technical leads run multi-day pilot campaigns, analyzing final output in parallel with reference standards.
Looking beyond product delivery, we measure our own impact by customer success stories and challenge resolutions. Some clients share new protocols, others bring bench-top findings that highlight how a specific impurity or color shift affects downstream product quality. We turn these conversations into direct manufacturing adjustments and monitoring. If we get wind of a batch causing yield loss or safety concern, our priority is diagnosis and transparent corrective action.
Long-standing partners trust us to flag shipment issues, explain specification shifts, or coach new researchers through unfamiliar handling procedures. In practice, this means more than selling material. It means teaching solvent selection, recommending glassware, and following up with data requests. These relationships create a knowledge base—seasoned not by abstract technical writing, but by shared troubleshooting and the reality of building safer, more reliable chemical syntheses at scale.
Every drum of cyclopropylmethyl chloride we produce reflects decades of accumulated practice, from raw material sourcing to final shipment. Details matter—reaction temperature swings, subtle shifts in raw material quality, storage wear, and batch-to-batch purity consistency. Our team’s experience ensures these variables are known, predictable, and well-communicated to those who trust our product in their processes.
The future of cyclopropylmethyl chloride lies in ever-stricter quality assurance, deeper customer collaboration, and ongoing adaptation to emerging safety and environmental standards. By investing in research, line upgrades, and responsive technical service, we aim to see our customers achieve better results, with fewer surprises and more robust outcomes in both the laboratory and plant. It is through this partnership—manufacturer to innovator, producer to researcher—that true progress in chemical synthesis moves forward.
From raw material procurement through monitored production lines and continuous process review, our work with cyclopropylmethyl chloride never stands still. We remain committed to improving not just what goes into the drum, but the experience of everyone downstream, driven by a blend of technical skill, practical care, and a deep knowledge of how such a unique compound fits into the larger world of modern chemistry.