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HS Code |
395324 |
| Chemical Name | 2-Chloro-2-Nitropropane |
| Cas Number | 594-16-1 |
| Molecular Formula | C3H6ClNO2 |
| Molecular Weight | 123.54 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 114-115°C |
| Melting Point | -63°C |
| Density | 1.174 g/cm3 at 20°C |
| Solubility In Water | Slightly soluble |
| Flash Point | 34°C (93°F) |
| Refractive Index | 1.413-1.415 |
| Vapor Pressure | 16 mmHg at 25°C |
As an accredited 2-Chloro-2-Nitropropane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 mL amber glass bottle with a secure screw cap, labeled "2-Chloro-2-Nitropropane," hazard warnings, and safety instructions. |
| Shipping | 2-Chloro-2-nitropropane is shipped as a hazardous material due to its flammability and toxicity. It must be packed in airtight, chemical-resistant containers, clearly labeled, and comply with international and local transport regulations. Proper documentation and safety precautions, including spill containment and emergency response instructions, are mandatory during shipping. |
| Storage | 2-Chloro-2-nitropropane should be stored in a cool, dry, and well-ventilated area away from heat, sparks, and open flames. Keep the container tightly closed and protected from physical damage. Store separately from strong oxidizers, acids, and reducing agents. Use appropriate, clearly labeled chemical storage cabinets, and avoid exposure to direct sunlight. Always follow relevant safety regulations and material safety data sheet guidance. |
Applications of 2-Chloro-2-Nitropropane in Industrial ManufacturingAs a specialized manufacturer of 2-Chloro-2-Nitropropane, we support downstream sectors where this compound’s unique properties are essential for core process performance. We maintain strict quality oversight to match regulatory and production requirements in each industrial use. The following segments illustrate established application scenarios, from chemical synthesis to specialized coatings and agrochemical production, each optimized for high-value industrial workflows. 1. Synthesis of Pharmaceuticals IntermediatesPharmaceutical manufacturers use 2-Chloro-2-Nitropropane as a key building block for the synthesis of nitroalkane-functionalized intermediates, notably for certain antihypertensive and antimicrobial agents. The compound enters the synthetic pathway during nucleophilic substitution or alkylation steps, where its dual functional groups enhance intermediate reactivity. Fine control over addition during batch processing ensures purity, minimizes byproducts, and maintains tight specifications for subsequent steps under GMP environments. Industry compliance standards
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2. Fine Agrochemical Intermediate SynthesisThe agrochemical sector incorporates 2-Chloro-2-Nitropropane in the manufacture of selective herbicide and insecticide intermediates, leveraging its chloro and nitro functions for subsequent cyclization, nitration, or substitution steps. Application occurs under controlled feed during multi-stage reactions, typically in the production of high-margin chemical entities. Extensive process monitoring helps operators comply with tight impurity thresholds and ensures consistent product performance per global crop protection standards. Industry compliance standards
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3. Specialty Coatings Additive ProductionManufacturers of industrial coatings utilize 2-Chloro-2-Nitropropane to modify resin backbones or introduce reactive nitro functionalities, thereby improving crosslinking density, chemical resistance, or adhesion in specialty applications such as maintenance paints and protective finishes. Integration occurs during prepolymer or curing-phase blending. Tightly controlled addition minimizes free monomer content while supporting compliance with evolving VOC and safety standards. Industry compliance standards
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4. Synthesis of Performance Polymer PrecursorsProducers of specialty polymers and elastomers employ 2-Chloro-2-Nitropropane as a monomer modifier or chain-transfer agent for the introduction of functional nitro- or halo-groups along polymer backbones. This enhances compatibility with fillers, adhesion promoters, or reactive plasticizers in advanced compound materials. The compound enters at early polymerization stages, normally under anhydrous conditions and closely monitored exothermic profiles to ensure safety and product consistency. Industry compliance standards
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2-Chloro-2-Nitropropane has built a reputation in the chemical industry because of its unique balance of reactivity and selectivity in organic synthesis. Having dedicated years to producing this compound at scale, I’ve witnessed firsthand its value to specialty chemical processes, particularly in pharmaceutical intermediates and agrochemical development. Our plant controls every step from raw material procurement through purification, ensuring this product meets high expectations for purity and consistency batch after batch.
Our 2-Chloro-2-Nitropropane (with CAS number 600-25-9) typically leaves our plant with purity levels above 98%. Each lot is triple-checked using advanced gas chromatography and infrared spectroscopy. Stringent controls keep moisture, acidity, and residual solvents well below industry-set limits. This attention to detail matters to formulators and researchers who count on uninterrupted runs in their labs or pilot lines. Many processes can break down if even small amounts of impurities creep in, and over the years we’ve seen the impact when lesser material from other sources throws off reaction sequences or crystallization steps. We focus on process stability to spare our customers those headaches.
In its pure form, 2-Chloro-2-Nitropropane presents as a pale yellow to light amber liquid, with a faintly pungent yet manageable odor. The boiling point sits above 130°C, which offers advantages in controlled, higher-temperature reactions where low volatility helps moderate evaporation losses. Its moderate solubility in polar organic solvents like acetone or DMSO, and limited water solubility, make it suitable for extractions and as a phase modifier. Unlike more volatile or fragile nitroalkane compounds, 2-Chloro-2-Nitropropane provides a more robust option for those who need stability throughout the handling and storage process.
Our customer base largely comes from the pharmaceutical, agricultural, and specialty fine chemical sectors. The compound’s appeal often ties to its dual functional groups, enabling unique pathways for C–C and C–N bond formation. In one case, a pesticide manufacturer scaled up a condensation sequence using our product as a core building block, where the selective reactivity of the chloro and nitro groups let their chemists develop a process with fewer byproducts and a higher overall yield. Another customer, focused on developing medicinal intermediates, noted that our material’s reliable purity prevented unwanted side reactions—saving time and cutting waste in downstream purification.
These experiences aren’t unique. Chemists and process engineers want predictability, and using in-house manufactured material gives us a degree of upstream control that trading houses and distributors can’t match. Regular audits of our raw material sources, rigorous operator training, and real-world feedback shape our batch protocols. Over years of working with researchers, we've tweaked our specifications—sometimes tightening them beyond published standards—based on what users actually see in the plant or lab. Getting direct feedback on color changes, unexpected residue, or small shifts in odor has helped us reduce process drift and troubleshoot work-up procedures alongside our partners.
Within the nitroalkane family, there are several compounds with similar functional groups yet notably different performance profiles. For instance, compared to 1-chloro-2-nitroethane or nitropropane isomers, 2-Chloro-2-Nitropropane delivers a more controlled activation due to the placement of its substituents. The presence of both a chloro and a nitro group on the propyl chain delivers a higher degree of selectivity during electrophilic substitution and ring closure reactions. In our manufacturing operations, we’ve observed that attempts to swap in structurally similar nitroalkanes can force downstream chemists to compromise on yield, purity, or cycle time. Processors who thought they could work around it by blending in other materials often report having to rebuild purification steps or face more waste. Such choices can become more costly than investing in the right raw material at the start.
Operating a chemical plant that manufactures 2-Chloro-2-Nitropropane brings practical challenges. Safe handling and storage top our priority list. The compound’s chemical nature means we use sealed HDPE or steel drums, kept away from heat sources and sunlight to keep quality and safety at the highest standards. Internal reviews have led us to automate much of our material transfer, reducing operator exposure and minimizing release risk. Our operators use tested PPE—including gloves rated against chlorinated organics and nitro compounds—while routine air monitoring provides early warnings of leaks or abnormal vapors. Over the years, these controls have become routine at our facilities, but we still refresh safety training every quarter, as complacency puts everyone at risk.
We share best practices with customers, advising on receiving checks and storage temperatures. While the compound doesn’t demand refrigeration in most climates, keeping stock away from direct sunlight and sources of alkaline contamination helps extend storage life. Routine rotation ensures no long-held inventory degrades before use, and we back every shipment with a current certificate of analysis reflecting batch release testing.
Manufacturing 2-Chloro-2-Nitropropane requires close attention to both environmental stewardship and regulatory compliance. Our region enforces strict wastewater and air emission standards. Over the years, we have upgraded our scrubber systems and implemented solvent recovery programs. We reclaim and recycle compatible process solvents, keeping discharge well below permitted thresholds. This cuts costs and builds community trust. Factoring in lifecycle impact and process safety from the design phase onward, we’ve minimized waste and improved containment. Auditors review our logs annually, while ongoing regulatory updates prompt internal reviews of our documentation and product stewardship literature.
Direct manufacturing offers clear advantages beyond basic quality control. Third-party traders may know logistics and contract packaging, but miss what’s happening inside production reactors, or what process deviations mean on the shop floor. Our own teams handle material from raw feedstocks all the way to drumming and shipping. Internal product traceability gives our customers real assurance about origin and production practices. If a customer reports an unexpected behavior—say, abnormal residue in a pilot batch—we can pull up batch records, re-run retention samples, and help diagnose root causes using firsthand data. In our experience, resellers rarely offer that level of technical support. Customers working on demanding syntheses or scaling a molecule from lab to pilot plant routinely call us before making major changes—often getting practical tips our operators have picked up from years of hands-on work.
This responsiveness goes both ways. As regulations evolve, direct feedback from downstream users gives us early warnings about new requirements for documentation, product labeling, or even trace impurity specs. Where a trader might be a step or two removed from these pressures, we feel them directly and adjust quickly, keeping customers both compliant and competitive.
Trust matters in specialty chemical manufacturing. Many of our customers have partnered with us for years, if not decades. Open lines of communication help both sides respond to tightening process specifications, scale-up challenges, and market shifts. Occasionally, a regular client will hit a snag in their process and call for insight. We’ve sent samples from current and older batches for testing in customer labs, or invited clients to review our plant records. Sometimes process drift turns out to be an upstream supply issue, or resolving a raw material impurity trace eliminates a persistent yellow tinge. Over time, these collaborations make both products and chemical processes more robust. That sort of troubleshooting is nearly impossible for intermediaries or general traders juggling anonymous batches from many sources.
Customer feedback has led us to many small process improvements. Minor changes to mixing protocols or stepwise addition methods have reduced emulsion formation and improved batch filtration. Some clients have even shared improvements on our standard analytical methods, resulting in earlier detection of trace byproducts or improved assessment of product stability under varying storage conditions.
We keep a focus on process innovation. New analytical techniques pop up every year, and we adapt our QA protocols accordingly. A few years ago, we introduced automated titration and spectral analysis for every outgoing drum—cutting human error and making real-time data available to both operators and external partners. Trials with closed-loop process control have yielded greater consistency, leading to fewer holdbacks and nearly eliminating off-spec batches. Our R&D group routinely explores new chemistries for safer and more sustainable routes to 2-Chloro-2-Nitropropane, reducing reliance on hazardous starting materials and minimizing waste streams. Because our team works daily with the production line, even incremental improvements can be implemented quickly.
Sustainable chemistry remains a top priority. We seek out partnerships with solvent recyclers and waste management specialists to adopt more circular practices. Biannual workshops with industry peers and academic consultants help us benchmark our efforts, staying ahead of environmental and regulatory requirements and keeping both plant crews and customers protected.
At the research scale, 2-Chloro-2-Nitropropane may look straightforward to use, but we’ve learned that issues multiply at plant scale. Exothermic reactions become harder to control, and impurities stack up faster during work-up if material isn’t carefully sourced and stored. Plant operators describe how unexpected temperature spikes, caused by contamination or uneven addition, lead to stuck batches or degraded product. We adjusted our internal temperature controls, improved agitation, and developed custom dosing procedures to normalize reaction outcomes. These details aren’t found in technical handbooks—chemists on the ground know how quickly a manageable process can become unsalvageable with the wrong lot. By focusing on consistent manufacturing and collaborating on scale-up, we’ve helped our partners avoid costly plant downtime and raw material loss.
Customers who work directly with us gain from our willingness to share production insights. Instead of working off generic guidelines, we provide stepwise advice about solvent compatibility, recommended mixing orders, and shelf life based on our own stability trials. Over time, these real-world recommendations save both money and frustration, especially for those introducing new formulations or optimizing existing ones.
Demand for more sustainable and clean chemical building blocks is increasing each year. Our approach has shifted to preemptively address product lifecycle and regulatory pressures. New collaborations with green chemistry firms and technical universities have helped us refine the underlying synthesis of 2-Chloro-2-Nitropropane. By using catalysts that operate under milder conditions and establishing closed solvent loops, we continue cutting per-unit emissions and waste. This cycle of incremental improvement goes unnoticed by most, but makes a measurable impact on plant safety, local environmental quality, and end-user trust. On top of ongoing investment in automation and real-time analytics, we also work with logistics providers to optimize shipping routes, minimizing time in transit and avoiding temperature spikes that can affect sensitive chemical stocks.
It isn’t enough to simply produce and ship a high-purity compound. Customers need practical, reliable knowledge to integrate specialty materials like 2-Chloro-2-Nitropropane into their operations. We invest significant time in customer education, offering not only technical data sheets, but also in-depth usage notes, troubleshooting guides, and real-world observations from our own process history. Technical visits to customer plants or close support during scale-up phases bridge the gap between best-practice theory and plant-floor reality. Over the years, these relationships have resulted in smoother process transitions, improved batch yields, and lower off-spec rates for both our teams and downstream partners.
When clients run into trouble—be it a filtration hiccup, an unexpected color shift, or a purification challenge—they know they can reach us for immediate, informed technical support. Many minor stumbles are easily resolved by drawing on the experience we’ve accumulated through decades of hands-on production. This living knowledge base keeps both new entrants and seasoned process engineers ahead of avoidable problems and helps maximize the effective use of each lot shipped.
Trust grows through transparency. Our production records, testing data, and supply chain documentation are open to customer review. We maintain full material traceability through every stage. Retention samples for each batch are stored for years. If a quality query arises, our technical staff quickly runs comparative tests and provides thorough explanations, not just boilerplate assurances. This system also protects against counterfeiting and supply chain irregularities. Customers can verify—at any point—their shipments’ provenance, the standards under which they were made, and the test data supporting each load.
In an era where regulatory audits and recalls hit hard, direct producer traceability gives partners peace of mind. Larger companies with strict internal controls increasingly demand this level of openness, while smaller users value having a knowledgeable, invested manufacturing partner at their side.
Working at the source of 2-Chloro-2-Nitropropane production brings both challenges and opportunities. Each improvement to product purity, supply chain transparency, and operational safety not only benefits our own operations but directly supports the wider chemical industry. Our approach blends hands-on experience, adoption of evolving analytical technology, regular customer feedback, and internal process innovation. By choosing direct-from-manufacturer supply, customers gain more than raw material—they benefit from decades of accumulated knowledge, faster resolution of real-world issues, and the peace of mind that comes from tested quality and open communication. In a world where chemical processes are only growing more sophisticated, these factors make all the difference for customers seeking consistent results and a trustworthy, responsive supply chain partner.