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HS Code |
484455 |
| Chemicalname | Ammonium 2,4,6-Trinitrophenoxide |
| Commonname | Ammonium Picrate |
| Casnumber | 131-74-8 |
| Molecularformula | C6H2N4O7·NH4 |
| Molecularweight | 229.14 g/mol |
| Watercontent | ≥10% |
| Appearance | Yellow to brown crystalline solid |
| Solubility | Slightly soluble in water |
| Meltingpoint | 160-170°C (decomposes) |
| Explosivehazard | Yes, especially when dry |
| Stability | Stable with adequate water content |
| Odor | Odorless |
| Density | 1.8 g/cm³ |
| Storagetemperature | Room temperature, keep moist |
| Use | Explosives, pyrotechnics |
As an accredited Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sealed 500g HDPE bottle with UN marking, clear hazard labeling. Contains moist yellow solid: Ammonium 2,4,6-Trinitrophenoxide (≥10% water). |
| Shipping | Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] should be shipped as a hazardous material under strict regulations. It must be packed in tightly sealed, compatible containers, kept moist to prevent drying, and transported with appropriate labeling. Avoid heat, friction, and shock. Follow all local, national, and international dangerous goods transport guidelines. |
| Storage | **Storage Description:** Store Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] in a cool, well-ventilated, and dry area, away from direct sunlight, heat sources, and incompatible materials such as acids and reducing agents. Keep the container tightly closed and protected from physical damage or shock. Clearly label the container, and store it in an approved explosive or oxidizer storage cabinet. |
Applications of Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] in Industrial ManufacturingAs a direct manufacturer of high-purity Ammonium 2,4,6-Trinitrophenoxide with controlled water content, we support large-scale process industries with chemical intermediates engineered for critical performance parameters. This section details real-world industrial applications in sectors where product handling, compliance, and formulation standards guide every stage—from procurement to final product. 1. Primary Explosives Initiator for Detonator ManufacturingThe material’s stability at controlled moisture levels enables its precise dosing in initiator charge mixtures for electric and non-electric detonators. Its reactivity profile meets demand for reliable and fast initiation under stringent safety protocols, making it a preferred input where storage and handline safety are paramount in workshop-scale arming lines. Controlled addition directly influences the sensitivity and performance of the priming composition before pressing and assembly. Industry compliance standards
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2. Gas Generant for Automotive Airbag InflatorsUsed in the synthesis of energetic compositions for automotive safety devices, Ammonium 2,4,6-Trinitrophenoxide provides the required gas output, tailored burn rate, and thermal profile when processing airbag inflator charges. Water content tuning mitigates static and friction risk during blending and granulation, supporting compliance for batch traceability and reproducibility in high-speed inflator module lines. Industry compliance standards
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3. Ignition Compounds for Rocket Propulsion StartersSpace and defense sector integrators utilize Ammonium 2,4,6-Trinitrophenoxide in ignition compounds for solid propellant motors—specifically to ensure reliable, uniform ignition under low-temperature and vacuum launch scenarios. Controlled hydration optimizes flow during microbatch weighing and mixing, directly impacting the function of ignition trains used in heavy-lift and tactical rocket systems. Industry compliance standards
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4. Pyrotechnic Delay Compositions in Mining Delay SystemsThis material is dosed into pyrotechnic delay mixes for precision delay detonators in underground mining and tunneling, providing stable burning rates and minimizing misfire risks even under harsh environmental conditions. Strict water control supports safe transportation to automated delay line processing units and compliance with regional safety licensing for energetic substances. Industry compliance standards
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5. Analytical Reference Material in Forensic StandardsCertified analytical laboratories utilize this compound as a reference standard for forensic explosives analysis, calibration of detection equipment, and for development of quantitation protocols in security screening and accident investigation. The high water content variant ensures safer sample handling, reducing static risk during method development, and enhances traceability as required for reference material producers. Industry compliance standards
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Competitive Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] prices that fit your budget—flexible terms and customized quotes for every order.
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We manufacture Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] with a focus on consistent performance and safety in every batch. In today’s specialty chemical landscape, products like this serve a narrow range of industrial needs, which gives those of us on the production side a unique perspective on both its challenges and its promises. This material rarely makes headlines, but its influence echoes across sectors—especially where precise energetic behavior or sensitive colorimetric applications matter.
People working with us understand that materials such as Ammonium 2,4,6-Trinitrophenoxide don’t leave room for shortcuts in production or handling. Despite its technical-sounding name, this compound achieves tangible outcomes in explosive formulation and analytical chemistry labs. The adjustment to maintain a water content at or above 10% comes from deep experience. Over time and through feedback from end-users, we’ve seen how minor tweaks in moisture levels can alter product handling, safety profile, shelf stability, and even detonation parameters.
In our line, we classify this product as Model A2TNP-10, corresponding to ammonium picrate meeting a minimum 10% moisture specification by mass. We arrive at this level after weighing customer input, regulatory advice, and our own years of batch-to-batch testing. In the energetic materials world, the difference between dry and hydrated material isn’t academic. Ammonium 2,4,6-Trinitrophenoxide earns its place because the added water plays two roles—tempering sensitivity and extending process flexibility. Pure, dry forms are notoriously impact- and friction-sensitive, which has historically led to catastrophic incidents in unwatched facilities. We saw early on that raising water content provided margin for error without sacrificing end-use performance.
Technicians in charge of environment control, especially in larger operations, tell us the minimum 10% water content helps meet compliance standards where dehydration risk is high. No two production lines run identically, so every batch spends time under close environmental scrutiny. We use Karl Fischer titration for water content and reinforce each QC cycle with consistent gravimetric checks. Our team stays present during every shift; plenty of us have seen what can happen when water content drops even by a couple percent during summer storage. Sweating the details keeps operators safe and machinery tight.
The largest demand for our product comes from energetic material compounding. Defense contractors, mining companies, and pyrotechnicians each have stories about mishandling dry picrates—everything from powder fires to unplanned detonations. With our hydrated product, process managers stay confident in material stability, especially during weighing, transfer, and initial mixing. That’s not just a theory; it’s a practical reality we’ve seen verified by years of safe storage logs, incident-free dispatches, and detailed usage reviews from our partners in the field.
Ammonium 2,4,6-Trinitrophenoxide remains indispensable for some analytical chemistry protocols as well. Laboratories running color test panels for certain metal ions or doing specific photometric research rely on distinctively stable performance batch after batch. Any lab veteran will attest: if water content dips below threshold, test results start to drift, and the entire workflow suffers. By holding to our process, our product manages the delicate balance that analytical teams require. The effort means more valid results on the first run and far fewer expensive reruns.
We often field questions from users frustrated by inconsistent supplies from traders and distributors. Many suppliers move bulk solids with lower prescribed water content or ambiguous batch histories. In our plant, we see firsthand that quality begins with transparent, repeatable hydration steps. Our controlled method is designed specifically to address the safety and performance gaps seen in drier or generic grades. The difference between a safe, unremarkable day and a serious incident often comes down to that water margin. Distributors and third-party repackagers don’t usually provide the kind of on-the-ground insight we’ve gained running the same production line, year over year.
Some operators describe attempts to rehydrate dry material themselves with steam or atomized water spray systems. Most regret it. uneven hydration leads to clumping, cake formation, or incomplete dissolution in blending tanks. A few grams here or there can create hot spots that set off localized thermal events. Our approach relies on integrated humidity staging—slow, uniform water uptake over controlled timeframes. The process demands patience, investment in tight environmental controls, and hands-on oversight from technicians trained in both chemistry and process safety. As chemical manufacturers, we appreciate that these measures raise our input costs and labor hours, but our most trusted clients now expect this since the track record of safe, reliable batches speaks for itself.
Side-by-side with lower-grade equivalents, our product consistently delivers reduced sensitivity to friction and impact. That’s not just a specification number—it’s the difference between routine handling and risking an uncontrolled reaction in a hopper or chute. Maintenance staff who load augers or conveyor lines day-in, day-out, know the feel and sound of a stable, well-hydrated product. That feedback loops right back into our process design year after year.
Ammonium 2,4,6-Trinitrophenoxide sits in a class of compounds with a long and often misunderstood legacy. Early-century manufacturers, chasing maximum output, overlooked water controls in exchange for throughput. Data from accident investigations shared among industry bodies paints a clear cause-and-effect relationship between water content and safe handling, particularly in batch scale transitions and during long-range transport. Internally, we draw on published work from H.P. Cady, the U.S. Bureau of Mines, and our own decades of incident-free operation to hone protocols that keep both product and people secure.
On the warehouse floor, where inventory might cycle several times per season, our staff keeps vigilant watch for ambient drift—small leaks, overactive dehumidifiers, or rapid air exchanges can draw too much water out. The lessons from industry-wide case studies motivate us to run tighter checks and automated failsafes. We harden packaging to minimize water loss; tamper-evident drums, sealed liners, and multi-layer barriers ensure end-users see exactly the product they’ve ordered. Adopting best practices only makes sense when you’ve seen, as we have, what happens where enforcement is lax or corners get cut.
Safety drives everything in our operation. Anyone who’s ever spent a hot afternoon deep-cleaning a processing mill or prepping a reactor line for a batch changeover knows the risk never disappears. We adopt the attitude that every operator is a potential accident preventer, especially where energetic salts are in play. Our facility leadership came up through the ranks and understands that a culture of vigilance complements modern risk engineering, not the other way around.
High water content doesn’t simply blunt the reactivity of the material—it reduces the frequency of near-misses during transfer, blending, and packaging. The data shows lower airborne dust; our annual health monitoring among exposed staff correlates this with fewer reported respiratory symptoms. That’s a direct line from process design to worker health, not just a badge on a compliance checklist. Our environmental controls extend outside the building—wastewater from any washdown or secondary containment step passes through a multi-stage treatment system to neutralize ammonia and nitrated species before discharge, reflecting both regulatory compliance and an internal commitment to living up to the expectations of the surrounding community.
Manufacturing a specialty compound like ammonium picrate means adapting to a slim comfort window. We’ve faced periods of volatile input costs, inconsistent upstream supply, and the constant pressure to turn out more volume. Scaling up batch size always threatens the delicate water balance, so we expand incrementally, adding capacity with the sole condition that our water control equipment keeps pace. Some peer firms chase rapid expansion—our decision is to focus on scale discipline, even if it means disappointing this or that prospective client in the short run. The long view: ruined batches or, worse, a safety lapse cost far more in trust and reputation than any short-term gain.
Attaining the practicality that users need rests on careful dialogue across customer engineering teams, independent safety consultants, and our own operators. This partnership approach gives us direct feedback—changes in user formulations, shifting standards in explosive device manufacturing, and evolving regulatory frameworks—all make their way back to us as actionable input.
We’ve seen buyers burned by repackaged, unverified bulk product that failed to deliver on either performance or safety. This has made it easier over the years to explain why every kilo that leaves our plant matches the water content commitment on the label with QC paperwork to prove it. We mark every shipment with batch-level water analysis so that downstream users can make informed decisions about risk mitigation in their own workflows. The result is more informed procurement managers, fewer complaints, and longer-lasting partnerships.
Compliance doesn’t stop at meeting a given standard—real accountability grows from being able to demonstrate it under audit or investigation. We take pride in hosting third-party inspectors, whether for annual ISO checks or unannounced government visits. We update our protocols with every meaningful shift in regional or international standards for production, storage, and transport of energetic chemicals. The knowledge that regulators follow real-world outcomes, not just promises, shapes how we allocate resources year-round.
Onsite training plays a huge part in sustaining compliance and operational continuity. New hires get hands-on experience with every major process variable, including water content measurement and correction steps. Team members build intuition for what the right product feels, looks, and smells like—an advantage algorithms and remote monitoring will never replace. Retaining this human element keeps mistakes rare, and adaptation to unique batch challenges built into everyone’s routine.
Continuous improvement remains an overused phrase, but on our production line for Ammonium 2,4,6-Trinitrophenoxide, it still means something. We don’t chase change for its own sake. Instead, incremental investment in mixing, hydration, and controlled-drying systems gives us sharper control, steadier output, and fewer losses. Internal data tracking for every lot—yields, water retention, blend performance—lets us respond to negative trends before they result in out-of-spec material.
We have learned to integrate feedback from the equipment side, too. Mechanical engineers on staff make incremental tweaks to agitation systems, seal integrity, and in-line sampling stations. Each season, we review maintenance logs and introduce upgrades where repeated issues surface. This closes the loop—production, maintenance, warehouse, shipping—so every part of the chain knows how water content and product stability evolve over real-world handling and storage.
We’ve always found that customer relationships stand or fall based on trust and openness. Supplying Ammonium 2,4,6-Trinitrophenoxide is not transactional; it’s a collaboration in long-term risk management, performance assurance, and honest communication. In our early years, we answered endless calls from technical teams trying to solve stability and sensitivity problems with off-the-shelf or undervalued product. Over time, as our data set grew and our reliability record lengthened, the conversation shifted. Now, our partners return not just for the material, but for the experience—questions about unusual blend behavior, storage concerns during extreme weather, or audit support get treated with the urgency they deserve.
Site visits and technical consultations became a regular part of our business. We send production engineers—not sales reps—on-site to see customer processes up close. The knowledge flows both ways: we learn how product actually behaves in diverse environments, and end-users gain insight on possible process upgrades based on what we see coming down the pike in our own plant. The result is not only a safer day-to-day environment but fewer surprises during busy production peaks or unexpected regulatory inspections.
Demand for Ammonium 2,4,6-Trinitrophenoxide [Water Content ≥10%] shows no sign of fading from the few core applications that count. Our experience producing and delivering it through wet, dry, hot, or unpredictable conditions translates into tangible benefits for every hand it passes through. We make mistakes—none of us hide from that—but we own them, learn, and build the knowledge into the next shift, the next formulation run, the next upgrade to our hydration suite.
Those who put safety, batch stability, and open communication at the core of their buying decisions have shaped the way we operate. The specifics of energetic materials manufacturing will change; novel applications might emerge, and regulatory demands will surely get stricter. What will not change is our commitment to getting water content right, batch after batch, and putting real working knowledge at the center of our partnership with every user.