|
HS Code |
977259 |
| Chemical Name | Ammonium 2,4,6-Trinitrophenoxide |
| Common Name | Ammonium Picrate |
| Cas Number | 131-74-8 |
| Molecular Formula | C6H5N4O7 |
| Molar Mass | 274.13 g/mol |
| Appearance | Yellow crystals |
| Water Content | <10% |
| Solubility In Water | Slightly soluble |
| Explosiveness | Explosive when dry |
| Storage Conditions | Cool, dry place, away from shock and friction |
| Boiling Point | Decomposes before boiling |
| Density | Approximately 1.7 g/cm³ |
| Odor | Odorless |
| Uses | Explosives, pyrotechnics |
As an accredited Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Packaged in a sealed 500g amber glass bottle with a secure screw cap, labeled with hazard warnings and handling instructions. |
| Shipping | Ammonium 2,4,6-Trinitrophenoxide (dry or water content <10%) must be shipped as a hazardous material under strict regulations. It is classified as an explosive (UN0222), requiring packaging in approved containers, segregation from incompatible substances, temperature control, and appropriate labeling. Only authorized carriers should handle its transport according to international and local guidelines. |
| Storage | Ammonium 2,4,6-Trinitrophenoxide [Dry or Water Content <10%] should be stored in a cool, dry, and well-ventilated area, away from sources of heat, sparks, and open flames. Keep in tightly sealed containers, isolated from reducing agents, acids, and combustible materials. Ensure strict control of moisture content and avoid shock, friction, or rough handling due to its explosive and sensitive nature. |
Applications of Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%] in Industrial ManufacturingAmmonium 2,4,6-Trinitrophenoxide, with controlled water content below 10%, serves specialized industries that require precise energetic properties, strict compliance adherence, and predictable performance within regulated downstream production. Below are major industrial application scenarios, each supported by specific regulatory frameworks and technical integration points. 1. Primary Explosive Charge for Electric DetonatorsThis material plays a critical role as a primary explosive in the assembly of electric detonators for mining and civil blasting. Producers require consistent particle size, predictable sensitivity, and compliance with stringent energetic materials guidelines. The formulation must balance initiation reliability with safe handling during detonator loading. Quality teams monitor water content, as moisture levels below 10% help control sensitivity and mechanical stability throughout pressing and crimping operations. Industry compliance standards
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2. Ignition Compositions for Safety Fuses and Pyrotechnic PrimersThis compound is integral to ignition compositions that require sharp initiation alongside low mechanical impact sensitivity. Safety fuse and pyrotechnic primer manufacturers employ it for its stable output consistency and compatibility with binder and oxidizer blends. Production lines closely monitor loading to ensure ignition formulas comply with local manufacture, storage, and transport regulations. Controlled water content supports safer compaction and minimizes unintentional ignition risks during handling. Industry compliance standards
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3. Laboratory Reagents for Energetic Materials DevelopmentMaterials science and defense laboratories source this raw material for formulating and evaluating new classes of primary energetic compounds. Quality protocols govern the use of batches with defined moisture levels as these significantly impact thermal behavior and initiation profiles. Research teams carefully document handling for compliance with chemical weapons conventions and international test standards governing energetic substances in experimental settings. Industry compliance standards
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4. Specialized Micro-Pellet Charges in MEMS Initiator ManufacturingManufacturers of micro-electromechanical systems (MEMS) initiators for automotive and aerospace use this raw material in the fabrication of ultra-small primary charge pellets. The product’s low residual moisture ensures predictable stability during wafer-level assembly and encapsulation. Application requires pre-screened batches that conform to micronization and flowability requirements for high-throughput MEMS lines. Stringent in-process monitoring upholds both hazardous material and cleanroom standards. Industry compliance standards
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Competitive Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%] prices that fit your budget—flexible terms and customized quotes for every order.
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Every day in our production hall, Ammonium 2,4,6-Trinitrophenoxide with a water content below 10% flows from the reactors under a careful balance of conditions. We control temperature, pressure, and feeding rates as much to discourage unwanted by-products as to encourage the purity that experienced engineers demand. There’s no secrets in our process—only persistent attention to real-world outcomes.
This compound, known among those in the energetics and specialty chemical sectors, draws frequent interest not for flash but for its consistent response in specific industrial and research applications. Our batches typically offer purity levels that exceed 99%, with water content routinely measured below the 10% threshold by gravimetric and Karl Fischer titration. That dry or semi-dry form matters to technical users whose lines run continuously and whose safety margins allow little room for error.
We run vertical synthesis units, not just for production throughput, but to keep contaminants out and monitor each stage directly. From raw material qualification through each batch’s work-up and isolation, the chemists on our team interact with the process and whether it’s day or night, any abnormal shift gets flagged for review. My team implements controls beyond simple automation, relying on trained eyes to confirm color, texture, and crystal form. If you’ve walked the line, you know that hands-on experience trumps a dashboard full of hypothetical trends.
Each kilogram starts as a solution, then shifts to crystal form under vacuum drying. By keeping residual moisture under 10%, we give users a material that resists caking in storage but avoids the risks that can build from over-drying sensitive energetic salts. In this section of the operation, you’ll find us double-checking moisture content before packing—from our own experience, we’ve learned that control at this stage makes or breaks material shelf-life and handling behavior months down the line.
For a chemist or engineer who works day to day with high-performance organic salts, the dry or low-moisture variant of Ammonium 2,4,6-Trinitrophenoxide raises fewer storage issues compared to the wet slurries delivered by some suppliers. Anyone who’s opened a drum only to fight with a compacted, sticky mass knows the frustration. We focus on this physical consistency precisely for downstream reliability.
Here, the material exits the dryer as a fine, free-flowing powder, pale yellow as expected, and unadulterated by binders. Our drying regime leaves no residual solvents, and no anti-caking agents ever touch the product. In practice, this deliberate approach minimizes both static buildup and the potential for uncontrolled decomposition during storage.
Ammonium 2,4,6-Trinitrophenoxide stands apart for organic synthesis in laboratories, as well as in select energetic formulations. Our customers work in defense, mining, and material sciences, and all prize consistency as well as safe handling. In our plant, we’ve worked extensively with the ways this product blends with binders and oxidizers for the development of specialty pyrotechnics and initiators. The dry product enters mixes with little need for force, and we’ve documented particle size distribution after weeks in storage—no lumping, no trapped moisture.
In primary explosives research, tiny differences in humidity levels can mean a lot. Our attention to moisture control assures predictable handling, reducing risk of accidental sensitization or unexpected delays from material that’s too damp or caked. We’ve heard from users who’ve switched to our dry form after repeated production stoppages caused by unreliable slurries. Their feedback: clean transfer, measured flow, and the confidence to meter material directly into their formulations.
In synthesis labs, our material’s purity means less time tracking down side products. Its consistent dry powder nature lets users measure out exact aliquots, rather than scraping sticky residues from bottles. As a manufacturer, I can tell you that watching your product move efficiently down the line—with no lost time for cleaning or rework—reflects well on every stage from synthesis through to logistics.
Not all nitrophenoxide salts behave the same in processing. Some suppliers focus on aqueous forms or offer product at higher water content to simplify shipment or reduce cost. We’ve run those lines ourselves before tightening specifications. With our experienced team, we know that water content above 10% risks hydrolysis, especially if storage containers are exposed to wide swings in temperature or humidity. Every manufacturer recognizes the slow breakdown that excessive moisture can cause—less responsiveness in the lab, less stability in storage, and higher disposal costs over time.
Other manufacturers sometimes add stabilizers or offer the product at higher moisture content for what they claim is improved safety. In practical settings, our customers report these additives can leave residues, complicate mixing, or interfere with analytical results. We saw similar challenges in our own pilot plant before we shifted to a low-moisture, pure product approach. That shift required investment—in dryers, testing equipment, and staff training—but it paid off in real improvements for both safety and process efficiency.
Packaging matters just as much as synthesis. We use lined, anti-static bags inside double-walled containers designed for stacking in regular chemical storehouses. No metal drums that could spark. No cardboard barrels that attract moisture. Having been called out for site visits to resolve handling problems for customers using less robust packaging, we take those lessons seriously. Each pack leaves our site with batch-specific certification of water content and a traceable record of chain of custody.
Ammonium 2,4,6-Trinitrophenoxide carries known handling hazards. We maintain explicit training with our own staff, and year by year invest in both detection and containment equipment. We remind clients frequently—never treat this compound with casual assumptions. Our own storage rules keep this away from incompatible organics or metals, and employees use redundant PPE protocols that reflect decades of industry safety standards.
Accidents in the field often come down to small oversights. We’ve worked with clients on root cause analysis after incidents resulting from poor housekeeping on storage, or substitution of wet product for dry when reactivity was expected. Our advice always stems from in-the-field failures and successes, relayed candidly, not just rehearsed guidelines. Experienced users return for refills because each drum they receive tracks the same as the last, with certificate-backed results on purity and moisture. If we get a query about performance, we pull retained samples for direct comparison rather than reciting numbers from a database.
Waste minimization stands as a practical concern. Our process engineers focus on yield but equally on by-products, so we reclaim solvent and neutralize residues at the source. Over decades, we’ve collaborated with customers managing spent salts or aged stock. Proper neutralization and compliance with hazardous waste guidelines prevent regulatory headaches and protect staff, soil, and groundwater. Our literature includes plain-language instructions on disposal, updated as regulations shift, based on real case experience, not just hypothetical models.
For users in research, formulation, or production, timely supply and batch-to-batch consistency have driven us to tie manufacturing to a reservation system. Fluctuations in demand—seasonal spikes for energetic applications, or expanded research budgets—can leave poorly prepared producers unable to deliver on time. Our scheduler immediately identifies long-lead items, and our blend of experienced purchasing and raw material storage smooths out most wrinkles in the supply chain.
Technical documentation isn’t a dead letter for us. We update user guidance as team members uncover new best practices, and maintain a continuous feedback loop with major clients. If a shipment experiences an issue, we send an experienced chemist, not just a sales rep, to review the site, look at the real-world use of product, and draw up revised practices together. These direct connections, in combination with transparent quality control, show up in the trust we’ve earned among professional users whose applications leave no margin for paper guarantees.
Newer players sometimes miss the demands of real-time, high-risk chemical handling; they focus heavily on cost or deliver partial documentation. Long-term users appreciate that technical backing means more than a tested certificate. It combines reliability, guidance, and access to knowledgeable human support. Our experience speaks—every major process tweak and every packaging improvement originated from field-level feedback, not marketing surveys.
As environmental and safety hurdles rise, we see the expectations of users shift, not just for product quality but also for traceability, stewardship, and verifiable transparency. Our compliance department drills down into each new regulation, prepping for audits and revising internal controls before outside pressure arrives. Those changes, from labeling clarity to sealed transit protocols, all stem from an honest assessment of real risks and user feedback, not just a checklist for auditors.
We lean heavily on historical lot data and keep reference samples for a decade. It lets us dive into customer questions quickly and gives peace of mind to anyone managing critical applications downstream. That focus on traceability, while time-consuming, matters for both batch recall efficiency and trust. Our lab logs hold photographic records of every production batch’s appearance, not just numbers, because our most experienced clients often spot a subtle difference in color or particle shape that a standard measurement might miss.
Investments in plant upgrades target not just safety but predictable performance, from zero-discharge effluent handling to automated dust-suppression in high-flow packing areas. These add upfront cost but pay back through reduced downtime, fewer non-conformances, and the continued safety of the staff who move several tons of active material each month.
Buyers look at more than price per kilogram. They ask for documented physical properties, supply reliability, technical advice, and fast responses when regulatory bodies audit on-site. Many have tried cheaper alternatives, watched for batch variability, and then come back to suppliers who demonstrate consistent material and honest troubleshooters. Every contract for Ammonium 2,4,6-Trinitrophenoxide we sign carries with it years of lessons learned, not just on paper but lived out in the hands of chemists, process engineers, and safety officers.
Every time a batch rolls out from our plant, it carries validation from the onsite team, the testing lab, and finally, from logistics, who record temperature and humidity throughout transit. We track these shipments, not only for our own quality assurance, but because a single slip in environmental control mid-shipment can show up as caking or inconsistent flow two continents away. Honest communication about shipping conditions and shelf-life, based on evidence, helps prevent the cycle of blame and overhaul that eats away at efficiency and morale on both sides of the transaction.
Our long-standing users have tweaked their lines and SOPs around the handling and performance of our dry or low-moisture product, seeing reduced cleanup downtime, less mechanical wear, and no rejected lots due to excess water. Many report improvements from the switch—and few, if ever, have returned to higher moisture or heavily stabilized forms once they experience the difference.
Every update to our process, every new bit of equipment, and every staff training session grows out of the honest feedback of real-world users. We attend industry meetings, partner with university labs, and pilot process upgrades based on what we see actually helps at the point of use. As requirements evolve and technology presents new possibilities, our focus remains. Each batch of Ammonium 2,4,6-Trinitrophenoxide, kept to reliable moisture and purity specifications, will support the confidence and safety of our industry’s most demanding users.
For those facing specific process needs, from new laboratory syntheses to field-scale production, we share everything learned at the manufacturing bench—the pitfalls, the success stories, and the ongoing quest for safer, more predictable outcomes. This direct exchange of knowledge strengthens the partnership between factory floor and end user, builds trust through action, and defines what it means to supply not just a chemical, but a tested tool for innovation and reliability in a complex world.