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HS Code |
103471 |
| Cas Number | 76-06-2 |
| Iupac Name | Trichloronitromethane |
| Molecular Formula | CCl3NO2 |
| Molar Mass | 164.38 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Melting Point | -58 °C |
| Boiling Point | 112-113 °C |
| Density | 1.65 g/cm3 |
| Solubility In Water | Slightly soluble |
| Vapor Pressure | 16 mmHg (25 °C) |
| Odor | Unpleasant, suffocating |
As an accredited Trichloronitromethane 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 sealed with a PTFE-lined cap, labeled "Trichloronitromethane," including hazard and handling instructions. |
| Shipping | Trichloronitromethane should be shipped in tightly sealed containers, kept upright and clearly labeled as a hazardous material. Transport must comply with relevant regulations (e.g., DOT, IATA, IMDG), ensuring protection from heat, sparks, and physical damage. Appropriate hazard labels and shipping documents are required due to its toxic and potentially explosive nature. |
| Storage | Trichloronitromethane should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible materials such as reducing agents, strong bases, and organic substances. Store in tightly sealed containers made of compatible materials. Ensure proper labeling and access only to trained personnel. Use secondary containment to prevent leaks or spills, and keep away from ignition sources. |
Applications of Trichloronitromethane in Industrial ManufacturingAs a specialized manufacturer of Trichloronitromethane, we supply high-purity product to approved industrial sectors where strict process safety, regulatory adherence, and formulation consistency are paramount. The applications below detail verified, use-case-specific roles of Trichloronitromethane in active downstream industries, covering critical compliance benchmarks, dosage guidance, process points of addition, and end-use product types. 1. Agricultural Soil Fumigant Intermediate—Synthesis of Halonitroalkane ActivesDownstream agrochemical companies rely on Trichloronitromethane as a core intermediate in the synthesis of halonitroalkane-based soil fumigants. The process requires precise raw material purity and controlled addition to ensure the formation of target active ingredients, minimize impurity transfer, and satisfy registration for agricultural use. Formulators adjust input scale based on active composition requirements while adhering to national pesticide compliance programs for field application. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Pharmaceutical API Intermediate—Production of Chloronitro-Methane PrecursorsPharmaceutical contract manufacturers leverage Trichloronitromethane for producing key nitrated methane intermediates used in next-stage reactions towards finished Active Pharmaceutical Ingredients (APIs). The addition protocol follows validated GMP procedures to ensure strict impurity control. Raw material loadings are meticulously calculated for optimal precursor yield and minimal toxicological carryover, fulfilling pharmacopoeial and export requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Explosives Manufacturing—Sensitive Detonation Agent SynthesisIndustrial explosives manufacturers utilize Trichloronitromethane as a precise reagent for obtaining sensitive initiator compounds incorporated into detonators and primary explosive charges. Process safety and consistency in reactivity are crucial, requiring batch analysis prior to dosing. Usage is determined based on explosive formulation targets, energy output, and compatibility with downstream blending agents. Strict adherence to national and international explosives handling regulations governs all operational steps. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Organic Synthesis—Custom Synthesis of Reactive Nitro CompoundsChemical synthesis specialists employ Trichloronitromethane as a controlled reactant in producing fine and specialty chemicals where selective introduction of halogenated nitro groups is required. Each order defines a custom reaction regime, with compliance centered on downstream customer product certification and hazard analysis. Loadings respond to molecular design criteria and process conversion targets, with full quality tracking for each manufactured lot. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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At our factory, trichloronitromethane isn't just a bottle on a shelf or a line on a sales chart. Every batch that leaves our gates represents the culmination of countless investment hours in research, fine-tuning, and safety testing. People sometimes call it chloropicrin, and those who've spent time in chemical processing plants recognize the distinctive, sharp odor that sets it apart. Behind that scent, though, there’s careful chemistry and a long tradition of both respect and caution in its manufacturing.
Our production process for trichloronitromethane began decades ago with straightforward equipment and procedures, but over the years, necessity demanded closer control and new refinements. Working with low tolerances for impurities, especially water and organic residues, we learned early that even slight contamination could change usable characteristics and increase risks during transport or application. Our technicians know the common byproducts and side reactions by sight and by smell, not just lab reports. QC staff test for acidity, clarity, and minimum content before final fill. Our current production grade averages higher purities. Careful adjustment of temperature and reaction time lets us maximize consistency, reducing process interruptions and waste generation. We routinely analyze for the usual suspects: dioxins, residual solvents, hypochlorites—matching the expectations of the crop protection, pharmaceutical, and specialty chemistry sectors that rely on traceable, compliant trichloronitromethane.
Most inquiries about trichloronitromethane start in the context of agricultural soil treatment. We’ve worked directly with horticultural farms and commercial greenhouse operators who describe its nematocidal and fungicidal action. Used carefully, trichloronitromethane helps break cycles of soil pathogens where other treatments come up short. It often finds its way into fields where high-value crops face recurrent wilt or root rot, giving growers a tool for predictable yields. Years of supply feedback shaped our approach to packaging: UV-blocking drums, corrosion-resistant linings, and small-batch lots for quicker usage. Where customers manage large acreages, our team prioritizes batch-to-batch traceability, because growers value knowing the exact date and grade of each container.
Several of our industrial clients draw on trichloronitromethane for chemical synthesis as well. Pharmaceutical researchers value it for selective nitration and as an intermediate for certain APIs. Our process chemists work with pilot customers to help them navigate this reactivity. Sometimes projects call for tighter specifications on trace dioxane or carefully controlled particle size for catalytic applications. We keep our technical staff close to these industries, learning about their latest requirements and feeding that back to production adjustments.
No serious trichloronitromethane producer ever treats safety and environmental stewardship as afterthoughts. This compound carries acute toxicity, requiring strict controls. Our teams undergo annual training in both emergency response and PPE use. The corrosive and lachrymatory nature of trichloronitromethane demands more than posted warnings on the shop floor; our staff lives this vigilance daily. During filling and transfer, our loading bays use reinforced diked floors and continuous air extraction.
We’ve experienced, too, that waste management needs constant attention. Byproducts and spent washwaters must pass through chemical neutralization, monitoring for halogen content before release to onsite treatment. Local regulators expect regular reporting, which fits our own audit practice and keeps both neighbors and workers safer. Over the years, we’ve invested in air scrubbing and process enclosures to keep accidental exposure below the strictest guidelines. Management familiar with previous generations recall less-controlled facilities—improvised ventilation, open vessels—that no longer fit today’s expectations or our own code of conduct.
Experienced plants always face the question: why use trichloronitromethane versus alternatives? Our chemists see this debate from multiple sides. In some regions, methyl bromide used to stand as a common option for fumigation, but international regulation shrank that window. As methyl isothiocyanate and 1,3-dichloropropene rose in popularity, growers still returned to trichloronitromethane for its unique combination of rapid action, broad spectrum, and reliable breakdown in soil. Unlike persistent agents, our product dissipates under sunlight and microbial activity, which makes it suitable for crops sensitive to long-lasting residues.
Some buyers ask how impurities or formulation affect efficacy. Longer storage or improper sealing can give rise to breakdown products, including hydrochloric acid or even chlorinated byproducts. It’s difficult for an off-site seller to catch these issues before they turn up in field problems. As a manufacturer, we run accelerated shelf-life tests and work with customers on storage recommendations—constant, shaded, below a certain threshold. We mark lot codes for every shipment, traceable to our raw material and batch records, so users always know if there’s been a recall or technical advisory.
Every year, our R&D team reviews incidents, both on our premises and among our global partners. Our chemists learn from events as small as minor valve leaks to large near-misses elsewhere in the industry. This practice led us to adjust our reactor seals, change out certain transfer piping materials, and introduce remote video monitoring in hot zones. None of these measures appear in public product brochures, yet they are critical to the baseline safety level we provide with each container. Line operators and shift supervisors compile logs on equipment conditions and abnormal events. We maintain an internal knowledge base built from these records, making it possible for every process improvement to stick and propagate through subsequent shifts.
Not every manufacturer is prepared to admit when process limitations show. Our site once faced a contamination incident tied to failing gaskets in an old charge tank. That experience taught us the value of investing in preventive maintenance and supplier verification, rather than assuming historical performance equates to continued reliability. Today, all elastomers and seals come from known, certified sources. Regular, scheduled audit trails keep our purchasing honest.
Customers using trichloronitromethane know the difference between a mere transaction and a collaboration. Some of our most valued relationships started with technical challenges—shifts in field application rates, questions about impurity effects, or curiosity about alternative adjuvants. Our technical specialists often hold discussions with on-site agronomists or production chemists. We supply test results and offer to run comparison batches, working toward solutions that fit real operations instead of just matching datasheet numbers.
We’ve found that transparent communication increases confidence in our product and in our intent. After a regulatory shift took a commonly used solvent out of the market, several customers worried about its trace presence in finished trichloronitromethane. By opening up our supply chain and showing our in-house gas chromatography methods, we helped key buyers gain their own peace of mind about compliance. Confidence grows from visible practice, not just written claims.
Community neighbors and regulatory agencies scrutinize everything from stack vents to wastewater discharge from chemical plants like ours. We invite routine inspection and participate in voluntary reporting initiatives. Our team introduces small but important changes to keep emissions below reporting thresholds, from installing more effective condensers on vent lines to adding real-time monitoring on outflows. Each improvement both reduces cost and shrinks environmental risk, which is central to maintaining our license to operate.
Local residents know our plant and its long history. We invest in outreach efforts—open days, site tours for science students, regular public updates during plant expansions. Trust comes from showing improvements, not hiding behind terminology. We answer concerns about odor episodes, explain what went wrong during minor process upsets, and set clear expectations for remediation timelines. This openness encourages better standards for everyone—no shortcuts, no hidden incidents.
For frequent users, the difference between our trichloronitromethane and lower-grade or repackaged versions appears early. We produce directly at one integrated facility, from raw material to final filled liquid, so there’s no unnecessary hand-off. Physical characteristics—appearance, odor, pH—leave no doubt about identity and grade. Users see fewer impurities because we run full panel tests during each production batch. Feedback loops from field and lab use allow us to dial in small modifications to better match current needs.
We avoid unnecessary intermediaries or dilution steps. Our buyers—whether large distribution hubs or direct end-users—talk to the folks who mix, test, and ship the material. Response to queries is technical, not generic, and focuses on solving field-level and process-level obstacles. When periodic lot-specific concerns arise, we take back samples, run analysis, and report results—no deflection. These habits slow growth compared to resellers, but we know the long-term cost of missed reliability or product recalls.
Compared to the irregular quality of trichloronitromethane from mixed origin or reprocessed waste streams, our output shows little variance in assay and moisture. Professional customers—especially those running continuous processes—need uniform reaction behavior. We track stability under a range of storage conditions, adapting tank linings and atmospheric controls if we learn of new failure modes, so end-users avoid costly downtime.
Modern trichloronitromethane production faces growing oversight and scrutiny, not just from regulators, but also from customers demanding proof of performance and controls. We welcome this evolution, as it aligns with our own operational beliefs. Every season, new threats appear—unexpected field resistance, shifting soil pathogens, or jurisdiction-specific maximum residue limits. Our teams spend significant time with university researchers and industry working groups, learning from external studies and sharing our data to improve collective understanding.
Some of the biggest improvements emerge from routine re-evaluation. Twenty years ago, manual tank checks and handwritten logs dominated our quality systems. Today, electronic records and embedded sensors support faster feedback and more accurate interventions. When new detection techniques emerge, we challenge our own assumptions and add capability, even if short-term costs rise. Longevity in chemical manufacture depends on adaptation and readiness to exceed minimum standards.
Chemical manufacturing, especially for compounds as demanding as trichloronitromethane, rewards experience and close attention to detail. Each gallon we produce carries not just the result of a chemical equation but years of accumulated lessons. Customers, communities, and regulators deserve openness and reliability, not just claims of compliance. By controlling every stage—from sourcing, reaction, and filling through to shipping and ongoing support—we commit to consistency and responsibility, even while the landscape of regulation and market need continues to evolve. In this way, trichloronitromethane doesn’t just serve as a product but stands as a testament to the value of hands-on expertise and ethical production.