2-Chloropropane

    • Product Name: 2-Chloropropane
    • Alias: Isopropyl chloride
    • Einecs: 200-870-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: sales3@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    928229

    Chemical Name 2-Chloropropane
    Cas Number 75-29-6
    Molecular Formula C3H7Cl
    Molar Mass 78.54 g/mol
    Appearance Colorless liquid
    Boiling Point 35.7 °C
    Melting Point -135 °C
    Density 0.866 g/cm³
    Refractive Index 1.393
    Flash Point -20 °C
    Solubility In Water Slightly soluble
    Vapor Pressure 375 mmHg (20 °C)

    As an accredited 2-Chloropropane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 500 mL amber glass bottle labeled "2-Chloropropane," tightly sealed with a screw cap and warning symbols for flammability.
    Shipping 2-Chloropropane should be shipped in approved, tightly sealed containers made of materials compatible with organic solvents. It is classified as a flammable liquid and must be transported according to hazardous materials regulations. Store and ship upright, away from heat, sparks, or open flames, and ensure containers are properly labeled to comply with safety regulations.
    Storage 2-Chloropropane should be stored in a cool, well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep the container tightly closed and clearly labeled. Store separately from oxidizing agents, acids, and bases. Ensure proper ventilation to prevent vapor accumulation, and use approved flammable liquid storage containers. Follow all safety guidelines and local regulations for hazardous chemicals.
    Application of 2-Chloropropane

    Purity 99%: 2-Chloropropane with 99% purity is used in pharmaceutical synthesis, where it ensures high reaction yields and product quality.

    Boiling Point 35°C: 2-Chloropropane with a boiling point of 35°C is used in laboratory-scale alkylation reactions, where rapid evaporation facilitates efficient solvent recovery.

    Density 0.87 g/cm³: 2-Chloropropane at a density of 0.87 g/cm³ is used in extraction processes, where optimized separation efficiency is achieved.

    Refractive Index 1.389: 2-Chloropropane with a refractive index of 1.389 is used in quality control analyses, where accurate substance identification is enabled.

    Water Content <0.05%: 2-Chloropropane with water content below 0.05% is used in anhydrous chemical synthesis, where it minimizes undesired side reactions.

    Storage Stability -20°C: 2-Chloropropane stable at -20°C is used in long-term reagent storage, where compound integrity is maintained.

    Viscosity 0.38 mPa·s: 2-Chloropropane with 0.38 mPa·s viscosity is used in industrial solvent applications, where low viscosity enhances mixing and flow characteristics.

    Molecular Weight 78.54 g/mol: 2-Chloropropane with a molecular weight of 78.54 g/mol is used in material formulation, where precise molecular calculations are required.

    Assay ≥98%: 2-Chloropropane assay of at least 98% is used in synthesis of fine chemicals, where high purity ensures consistent product quality.

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    Certification & Compliance
    More Introduction

    2-Chloropropane: A Closer Look at Its Role and Value

    Understanding 2-Chloropropane in Real-World Applications

    Stepping into the world of specialty chemicals, 2-Chloropropane makes its presence known as a building block that rarely headlines but quietly supports a chain of vital processes. Its formula, C3H7Cl, doesn’t scream innovation, but behind this simplicity lies a tool that manufacturers rely on for jobs that demand precision and reliability. This type of chlorinated hydrocarbon isn’t about fashion or hype—its core strengths rest on purity, consistency, and reaction potential. In labs and on plant floors, it serves as more than an ingredient; it acts as a dependable partner for research chemists, process engineers, and safety experts.

    Specifications Drive Trust in Industrial Settings

    Purity counts more than flash when you work with 2-Chloropropane. In my time managing solvent storage, I came to appreciate how minor impurities can cause reactions to go off-track. The product is usually available with a purity above 99%, which keeps things predictable, batch after batch. The boiling point hovers near 36°C, making handling and distillation straightforward for trained operators. Its transparency and faint odor make contamination less likely to slip by unnoticed, allowing for smoother audits. For those who have ever scrubbed out glassware at midnight after an unexpected side reaction, a cleaner solvent saves time and money.

    Transport and storage call for careful attention. Tanks and drums need to be air-tight, away from sources of ignition, since even common chlorinated compounds don’t mix well with open flames or static sparks. Speaking personally, equipment upgrades paid for themselves with reduced loss and fewer emergency stops.

    Walking Through the Chemistry: Why 2-Chloropropane?

    Look deeper into a production line and the story of 2-Chloropropane becomes clearer. It plays a significant role in organic synthesis—its structure offers reactivity where it counts, especially in nucleophilic substitution and elimination reactions. Applications often stretch across pharmaceuticals, agrochemicals, and advanced material manufacturing. While textbooks may label it as an “alkylating agent,” the full story involves balancing efficiency and safety.

    My experience consulting for a mid-sized chemical firm highlighted how choosing 2-Chloropropane over more aggressive halogenated solvents brings fewer headaches with regulatory compliance. Stricter limits on some chlorinated solvents mean every percentage point of volatility, toxicity, and byproduct matters. By picking a material that holds up to scrutiny and supports cleaner reactions, manufacturers can adapt more easily as rules change.

    Differentiating from the Crowd

    Every chlorinated hydrocarbon seems similar on the surface, but 2-Chloropropane tends to carve out its own territory. Its closest relatives—1-chloropropane and isopropyl chloride—bring a different set of benefits and tradeoffs to the table. While 1-chloropropane may offer slightly different reactivity, the placement of the chlorine atom in 2-Chloropropane opens the door for making certain compounds with fewer byproducts.

    Industry veterans often talk about searching for “the right tool for the job.” 2-Chloropropane shines in reactions where controlled substitution is more important than yield at any cost. Processes run a little smoother, and there’s less trouble with waste disposal, since its breakdown products typically pose less long-term risk. This advantage can save a surprising amount of paperwork and environmental headache.

    Global Supply and Quality Drivers

    In the past decade, global supply chains have stretched thin, exposing weaknesses and bottlenecks. With specialty chemicals, every weak link can derail a factory. I spent months chasing late shipments and juggling backup suppliers while managing an import schedule in Southeast Asia. That experience hammered home the value of trustworthy upstream partners. Producers that stick to strict quality assurance, traceability, and documentation stand out. The rise of quality management certifications isn’t just bureaucracy—tracking everything from raw material source to storage conditions keeps both human health and product outcomes safer.

    Not every supplier meets the same standard. Some sell 2-Chloropropane from cracked drums or bulk tanks that see more sun than shade—often leading to degraded product or accidental contamination. Good suppliers store and transport under the right temperatures in sealed containers, minimizing exposure to moisture or air. This attention to detail separates a reliable chemical partner from a source of future hassle.

    Use Cases in Daily Manufacturing and Research

    What seems like a bottle on a storeroom shelf quickly turns into an essential component in vast industrial processes. In pharmaceuticals, it finds its way into the synthesis of energetic intermediates—those middle-stage compounds that turn into painkillers, antibiotics, and crop protection agents. Some university colleagues once joked that chlorinated intermediates, including 2-Chloropropane, are like backstage crew: rarely spotted in the spotlight, but nothing happens without them.

    In coatings and plastics, it lends a hand as a chain starter or functional group anchor. Industrial research teams keep close track of how small changes in feedstock quality affect polymer strength and durability. Over the years, I’ve seen teams shave months off development cycles simply by tracing occasional flaws back to impurity spikes in raw inputs like 2-Chloropropane. Clear communication with suppliers goes a long way in these moments.

    Smaller labs and start-ups also lean on this chemical for exploratory synthesis. Since price points for regular shipments are lower than for more exotic solvents, smaller entities get access to a piece of the advanced manufacturing puzzle previously out of reach. In this way, quality 2-Chloropropane underpins not only established industry but also the next generation of chemical pioneers.

    Balancing Safety and Innovation

    Calling out safety standards isn’t just about ticking boxes. Chlorinated hydrocarbons attract strong regulation for a reason. In my early career, plant managers in charge of safety drills insisted on walk-throughs of the storage yard, stressing the basics: proper labeling, ventilation, spill response, and regular inventory checks. 2-Chloropropane isn’t immune from hazardous classifications, so organizations weave its handling into standard operating procedures. Those turning a blind eye to proper training or poor record keeping simply invite trouble.

    Control measures such as effective ventilation, leak detection, and compliant personal protective equipment (PPE) bridge the gap between routine use and rare incidents. In my network, everyone can name a plant shutdown or near-miss that stemmed from an overlooked valve or a rushed batch label. Culture matters as much as compliance. The most reliable facilities bake best practices into daily routines, knowing that every misstep has a real human cost.

    Sustainability Considerations

    Responsible organizations recognize that every chemical, no matter how simple, leaves its mark on the environment. The growing push toward greener chemistry prompts new questions on alternatives and byproducts. Some manufacturers seek bio-based or less volatile options, but 2-Chloropropane often threads the needle between performance and manageable risk. It doesn’t rank as the cleanest solvent in existence, yet it stands a head above notorious problem cases like carbon tetrachloride or chloroform.

    As discharge limits tighten and wastewater treatment rules evolve, facilities facing higher scrutiny look for ways to cut waste at the source. Closed-loop recycling, on-site capture, and improved containment all play a role. One project I worked on swapped vat open-tops for sealed transfer lines, sharply reducing fugitive emissions. It’s these practical interventions—not wishful recycling programs—that move the sustainability needle in the right direction.

    Assessments from environmental agencies often factor in the persistence, bioaccumulation, and toxicity of intermediates. Suitable treatment trains and incineration limits keep downstream harm in check, but only if backed by rigorous monitoring. The ongoing challenge lies in maintaining high standards in regions where oversight varies. Advocacy and industry self-regulation step in where policy lags, setting voluntary targets for spill reduction and improved tracking.

    Navigating Regulation and Public Confidence

    In the public eye, chemical names rarely inspire reassurance. News about spills or exposures can undermine trust faster than years of safe operation can repair. Proactive transparency helps. I’ve seen facilities that practice open days, letting neighbors and local officials tour the site, build stronger relationships than those hiding behind security fences. Posting clear, jargon-free explanations of handling procedures on public websites can also smooth rough edges.

    Staying ahead of evolving regional and global regulations is non-negotiable. Controls on chlorinated solvents change yearly in some markets—and failing to prepare quickly turns a business advantage into a compliance headache. Drawing on the lessons of export controls, customs paperwork, and market recalls, chemical managers who keep up with new labeling protocols and reporting requirements sleep more soundly. This forward-looking approach helps avoid regulatory surprises and ensures business continuity even in turbulent policy environments.

    In my advisory work, cross-functional training programs supported by clear, living documentation produced the most resilience against audit shocks. Organizations with written playbooks—updated at least quarterly—demonstrated smoother adaptation to surprise inspections and outside reviews. Regulatory stability isn’t just a box checked for market access; it lays the groundwork for fair competition, environmental stewardship, and public trust.

    Technical Support and Continuous Improvement

    Operating an industrial process never feels routine if you’re chasing continuous improvement. Whether it’s troubleshooting off-spec batches, finetuning yields, or managing waste, technical support from dedicated suppliers adds real value to a chemical like 2-Chloropropane. I’ve called in support teams for on-site spectroscopy and reaction modeling—it’s no exaggeration that timely troubleshooting can tip the balance between lost time and a salvaged day.

    Suppliers that invite real dialogue about process optimization—rather than pushing out generic bulletins—tend to foster partnerships that last. Having witnessed both sides of the transaction, I’ve grown to respect those who follow through post-purchase with updates as product specs change or guidance around new best practices emerges. Joint site audits, shared risk assessments, and honest root cause analyses elevate both product quality and productivity.

    Building Capability Through Knowledge Sharing

    The rapid pace of chemical manufacturing brings up a need to continuously educate both new and experienced staff about evolving best practices. Past mistakes have shown that knowledge bottlenecks—where only a few experts handle hazardous intermediates like 2-Chloropropane—lead to preventable incidents. Peer-led training, open Q&A sessions, and well-documented protocols keep institutional memory strong.

    Sharing lessons learned from deployment, maintenance, and cleanup—whether in success or setback—keeps small issues from turning into disasters. Some firms keep a running log of batch anomalies tied to raw material certificates; others invite field operators and lab chemists to weigh in on purchasing decisions. Treating every worker as a stakeholder drives not just compliance but real engagement. Chemical operations succeed not in isolation, but with every team member opting in to shared responsibility.

    Looking Ahead: The Future of 2-Chloropropane in a Changing World

    Industry isn’t static. As demand for cleaner, more efficient processes grows—fueled by tightening emissions limits and a sharper societal focus on health—2-Chloropropane’s role keeps evolving. More users are asking tough questions about lifecycle impact, safer alternatives, and closed-system management. R&D teams are testing new catalysts and process designs that stretch each liter further and shrink waste streams.

    My professional circle sees an uptick in collaborative innovation, where producers, users, and regulators come together to share data, analyze pilot projects, and align on smart regulation. Progress looks different for every facility; adaptation won’t be one-size-fits-all. The chemical industry as a whole benefits from those willing to scrutinize the details, question tradition, and explore alternative pathways—without abandoning the reliability that got products like 2-Chloropropane their solid reputation.

    Supporting responsible, transparent use for the years ahead will take patient collaboration, forward-thinking investment, and respect for both foundational science and practical realities. Ultimately, success stems from a blend of proven technique, open dialogue, and the willingness to put in the extra work needed to raise the bar.

    Closing Reflections

    2-Chloropropane may not capture attention outside of specialized circles, but anyone who’s supported chemical manufacturing knows its quiet value. This is a product about more than specifications—it’s about trust, good habits, and a commitment to doing things the right way, even when shortcuts tempt. Keeping workers safe, minimizing impact, and adapting to future challenges rests on clear communication and sharp attention to the small signals chemicals like this send. Beyond vats and tanks, the real work happens in the judgment and commitment of people who care about getting every detail right.

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