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Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%]

    • Product Name Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%]
    • Alias Picric acid
    • Einecs 208-237-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    551672

    Chemicalname Ammonium 2,4,6-Trinitrophenoxide
    Synonyms Ammonium picrate
    Casnumber 131-74-8
    Molecularformula C6H5N4O7
    Molecularweight 258.13 g/mol
    Physicalstate Yellow crystalline solid
    Watercontent <10%
    Solubilityinwater Slightly soluble
    Density 1.73 g/cm³
    Unnumber UN 1341
    Hazardclass 1.1D (Explosive)
    Stability Stable under recommended storage conditions
    Odor Odorless

    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 & Storage
    Packing **Packaging:** 500g tightly sealed in a high-density polyethylene (HDPE) bottle, with hazard labels, desiccant included, double-packed in a fiberboard box.
    Shipping Shipping of Ammonium 2,4,6-Trinitrophenoxide (dry or water content <10%) requires strict adherence to hazardous materials regulations. It must be packed in approved explosive-resistant containers, clearly labeled, and kept away from heat, friction, and incompatible substances. Shipment should include proper documentation and be handled by certified carriers specializing in explosive materials.
    Storage Ammonium 2,4,6-Trinitrophenoxide [Dry or Water Content <10%] should be stored in a cool, dry, well-ventilated, and secure area, away from heat, open flames, and incompatible substances like acids or reducing agents. Store in tightly closed, explosion-proof containers made of non-reactive materials. Clearly label the storage area, restrict access, and ensure proper grounding to prevent static discharge.
    Application of Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%]

    Applications of Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%] in Industrial Manufacturing

    Ammonium 2,4,6-trinitrophenoxide, supplied in controlled dry or low-moisture grades, plays a critical role in select high-value industrial manufacturing sectors. As a trusted manufacturer, we focus on well-established downstream segments that require stringent quality, safety, and process integration. The following application scenarios outline specific uses, compliance protocols, formulation parameters, production methodologies, and end products found within each relevant industry.

    1. Primary Explosive Initiators for Detonator Assembly

    This compound functions as a reliable primary explosive ingredient in detonator and blasting cap manufacturing. Operators select it for its sensitivity, performance stability, and compatibility with established fuse and delay systems. Downstream assemblers depend on precise formulation to meet reliability requirements and ensure operator safety under regulatory oversight. Quality assurance protocols demand the delivery of material within specified water content for consistent initiation characteristics and safe incorporation into devices.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods, Model Regulations (UN Orange Book)
    • EU Explosives for Civil Uses Directive 2014/28/EU
    • US Bureau of Alcohol, Tobacco, Firearms and Explosives (ATF) Part 555 Explosives Regulations
    • ISO 2629:2022 - Explosives — Determination of sensitivity to friction, impact, and heat

    Typical usage ratio

    • Ranges between 35% and 50% of total explosive mixture in initiator charges
    • Exact share adjusted according to proprietary device design, desired initiation energy, and sensitivity requirements

    Downstream process integration

    • Material is weighed and blended with plasticizers and binders under controlled humidity and temperature
    • Formulation pressed or extruded into caps, bridgewires, or charge housings within automated assembly lines
    • Integration followed by automated or manual insertion into metallic detonator shells under strict safety containment

    Final product types

    • Blasting caps for mining and quarrying
    • Electronic detonators for seismic exploration
    • Electric and non-electric detonators for civil construction
    • Special pyrotechnic initiators for defense or research

    2. Gas Generating Systems for Automotive Safety Devices

    Automotive component manufacturers utilize ammonium 2,4,6-trinitrophenoxide as an energetic gas generator in airbag inflators and seatbelt pretensioner systems. Its rapid decomposition properties enable exact gas volume output upon activation, supporting efficient inflation timing. Strict process controls at the materials feeding, compaction, and assembly stages are essential to conform with safety-critical product tests. Production teams leverage its consistent burn rate and granule morphology to meet tier-1 OEM part acceptance criteria.

    Industry compliance standards

    • FMVSS 208 & 209: US Federal Motor Vehicle Safety Standards (Occupant Crash Protection, Seat Belt Assemblies)
    • ISO 19056:2015 – Road vehicles — Airbag gas generators — Test methods
    • EU Regulation (EC) 661/2009 on type-approval requirements for motor vehicles regarding safety
    • IATF 16949:2016 - Automotive Quality Management Standard

    Typical usage ratio

    • Comprises 10%–30% of the gas generant pellet blend, adjusted for required inflation profiles and target temperature parameters
    • Formulation quantity calibrated through iterative in-house ballistic and bench testing before series production

    Downstream process integration

    • Feeding into automated high-speed pellet presses, together with oxidizers and binders
    • Pellets loaded directly into airbag or pretensioner inflator housings under inert atmosphere
    • Complete weld-sealing and pressurization testing prior to OEM consignment

    Final product types

    • Driver and passenger frontal airbags
    • Side-curtain airbags
    • Seatbelt pre-tensioners
    • Micro gas generators for automotive restraint modules

    3. Laboratory Reference Material for Analytical Chemistry

    Chemical testing laboratories and metrology institutions require high-purity grades of ammonium 2,4,6-trinitrophenoxide to serve as traceable calibration standards in the analytical quantification of explosives residue and forensic evidence. Stable, certified material with controlled moisture ensures low variance in instrumental response and production of validated reference mixtures for chromatographic and spectrometric systems. Accurate batch documentation and origin traceability support reproducibility demands in accredited labs.

    Industry compliance standards

    • ISO/IEC 17025:2017 - General requirements for the competence of testing and calibration laboratories
    • EN ISO 6141:2015 - Gas analysis — Requirements for certificate content and composition of calibration gas mixtures
    • ASTM E2455 – 19: Standard Practice for the Process of Laboratories Preparing Explosives Residue Standards
    • Chain-of-custody and regulatory guidelines for controlled substances

    Typical usage ratio

    • Prepared as stock solutions ranging from 0.01% to 0.1% (w/v) in inert solvents for analytical method calibration
    • Dilution levels adjusted according to detection limits of LC-MS, GC-MS, or immunoassay protocols

    Downstream process integration

    • Material dispensed in controlled environment weighing rooms to minimize contamination risk
    • Dissolution and serial dilution carried out in Class 100 clean labs for reference mixture production
    • Packing in certified ampoules with tamper-evident seals and batch certificates

    Final product types

    • Certified reference materials (CRM) for explosives detection
    • Analytical calibration standards for mass spectrometry
    • Proficiency testing kits for forensic evidence examination
    • Internal standards for inter-laboratory validation programs

    4. Research and Development of Energetic Polymers and Composites

    Academic and industrial R&D programs exploring advanced energetic binder matrices and functionalized composite materials incorporate ammonium 2,4,6-trinitrophenoxide to impart ignition and gas-generation characteristics within controlled test specimens. Polymer chemists and materials scientists require precise documentation of water content and grade consistency to interpret reactivity and aging studies. Adjustment of loading, blend morphology, and encapsulation technique tailors the energetic performance for prototype development and experimental validation.

    Industry compliance standards

    • R&D workplace safety regulations: OSHA 29 CFR 1910.109 (US), EU Directive 2009/104/EC
    • Local institutional chemical handling protocols (e.g., ACS Chemical Hygiene Plan, ISO 45001:2018)
    • Project-specific material tracking, reporting, and export control requirements
    • Responsible Care® Commitment (for chemical management and environmental responsibility)

    Typical usage ratio

    • Variable from 5% up to 60% by weight in laboratory-scale composite formulations
    • Loading determined by experimental design goals: ignition sensitivity, gas yield measurement, and composite thermal profile

    Downstream process integration

    • Integrated during polymer blending or solution casting under fume hoods and constant environmental monitoring
    • Experimental scaling on bench reactors or batch mixers equipped with antistatic and remote controls
    • Post-processing via molding, curing, or extrusion for mechanical and chemical property testing

    Final product types

    • Experimental energetic polymer films
    • Prototype composite pellets
    • Test specimens for calorimetry, sensitivity, and decomposition rate analysis
    • Functionalized additives for next-generation propellant research
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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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    Certification & Compliance
    More Introduction

    Introducing Ammonium 2,4,6-Trinitrophenoxide [Dry Or Water Content <10%]

    Manufacturing From the Ground Up: What We’ve Learned

    Ammonium 2,4,6-Trinitrophenoxide with water content below 10 percent has held steady in our production line through years of practical experience and research. Handling this compound day in and day out has shown us what subtle changes in raw material quality, humidity, and processing temperature can mean for its purity and performance. Getting dry product requires more than just efficient drying equipment; achieving a reliable threshold under 10 percent moisture protects both storage stability and formulation use. In our facilities, strict controls over the entire batch process ensure the solid stays free-flowing without forming crusts or clumps.

    The model we produce targets a deliberately narrow particle size distribution, which reflects countless hours spent optimizing grinding, screening, and post-processing. Maintaining consistency with each lot helps end users minimize variability in their own downstream operations. For us, real consistency starts with in-house nitration and sensitive pH adjustment to avoid unwanted by-products at micron scale. Staff in our quality team run hands-on measurements for actual moisture content, density, and trace metals—directly off the line—because we are the manufacturer accountable for product integrity.

    The Role of Ammonium 2,4,6-Trinitrophenoxide in Advanced Synthesis

    From our vantage point as a manufacturer, we see real-world demand for this compound come from sectors needing energy-rich ingredients and reliable initiators. Many customers use it as a key intermediate during the synthesis of new energetic materials. In practice, they require a form that handles safely but dissolves or reacts predictably under controlled conditions.

    Some research teams appreciate the granular control over moisture level especially if they’re working toward meticulous synthesis steps. Blends with just enough water help limit static accumulation, which means safer transfer and metering by automated lines. Keeping water under 10 percent allows the product to move efficiently between container, feeder, and reactor with less dusting or loss. From a manufacturing perspective, it also simplifies packaging and cross-country shipping; excess water can jeopardize shelf life and shipping container integrity.

    How This Compound Stands Apart

    Similar products on the market include sodium, potassium, and other metal salts of trinitrophenol derivatives. Over years of producing and comparing these, we’ve recognized distinct advantages tied directly to the ammonium form. Ammonium 2,4,6-Trinitrophenoxide offers particular compatibility with a broader range of end uses because ammonium ions remain less reactive within certain highly oxygenated formulations. That means fewer surprises for labs scaling up from pilot to production. Ammonium-based products create less problematic by-product formation compared to potassium or sodium analogs, especially in high-sensitivity explosives or chemical research exploring new reaction pathways.

    Our chemical engineering team sometimes fields questions on why water content matters. Higher water levels complicate both dosing accuracy and reactivity in fine chemical syntheses since residual moisture introduces uncertainty in mass calculations. In our experience, less water translates directly into higher active content, more predictable behavior, and longer-lasting storage. We minimize the water load without taking the solid through conditions that might cause decomposition or change the crystal form. Everything from the choice of process filter cloths to the air-drying temperature has been calibrated in our workflow; small changes here let us continually reduce batch-to-batch differences.

    Why Consistency Carries Real-World Weight

    Consistency in this product isn’t just a matter of laboratory numbers—it shapes trust all along the supply chain. Being a manufacturer ourselves, we listen to feedback from propellant makers and advanced materials producers who rely on regular texture and particle size. They want to avoid incomplete dissolution or unwanted residues in their own mixing vessels. Where some specialty traders or repackers see minor differences, our production specialists know surface texture and crystalline homogeneity often tip the balance from reliable performance to processing headaches.

    Scaling up manufacturing from pilot to industrial scale highlights the ripple effects of each seemingly minor decision. As we’ve learned through experience, a batch that meets technical specifications on paper won’t always behave the same way under automated dispensing or extended storage. Paying attention to the way this ammonium salt compacts or flows after months in storage helps us develop packaging solutions that remove unnecessary handling risks. Customers working in regulated fields—such as defense or critical infrastructure—will notice how those details mean less waste and fewer regulatory headaches over time.

    Close-Up on Our Approach to Quality

    Internal standards steer our quality program, shaped by comprehensive process monitoring. We run dedicated checks not just at the final packing stage but right through initial nitrophenol preparation, ammoniation, and drying. Real-time control charts track any spike in impurity or moisture drift before a batch leaves our facility. Our operators take moisture meter readings for each drum and maintain records tracing every production lot’s full history.

    Relying solely on third-party analysis has never provided the confidence we need when supplying high-explosive components or specialty chemicals for aerospace innovation. Having our own analytical lab, run by staff who understand the realities of production constraints, lets us catch microscopic impurity variations long before they might show up downstream. Our workflow for Ammonium 2,4,6-Trinitrophenoxide hinges on clear communication: at the plant floor, tiny changes in humidity or power supply are immediately flagged to supervisors, preventing small issues from growing into lost batches.

    What Long-Term Users Have Taught Us

    Feedback loops with long-standing clients have led our technical team to refine both grade and presentation. For applications with high-sensitivity requirements—especially explosive or initiator technologies—moisture levels must not drift. Historically, early adopters ran into minor caking or compaction problems if packaging failed to withstand variable climates during shipping. In response, our pack-out process now uses barrier-lined drums engineered to block moisture ingress and prevent mechanical crushing during transit.

    Some of our industrial partners encountered variability when switching between ammonium and alkali metal derivatives. They report smoother processing and fewer adjustment steps once they shift to our low-moisture-grade ammonium salt. Only through hands-on root cause investigation—tracking each stage from raw material lot to bagging and transport—have we dialed in the spec that works reliably across a range of real-world operating environments.

    Tackling Handling and Regulatory Risks

    As the direct manufacturer, safety isn’t something we write about from afar. We draw on direct lessons from unexpected plant events or missed readings on humidity controls. Minimizing water reduces both short-term handling incidents and longer-term reactivity risk in storage. Our protocols ban open transfers and enforce double containment throughout the drying and bag-off stages. For anyone on our team, clear line-of-sight to the process matters more than just paper procedures.

    Staying current with rules means frequent reviews and direct dialogue with compliance auditors who track precursor management and shipment documentation. Chemical buyers ask us about dual-use considerations; our teams attend annual regulatory briefings and revise internal training accordingly. Mastering logistics with a product that sits under strict oversight makes us nimble. Learning from years navigating customs declarations, we’ve selected packaging and serialization formats that trace shipments from line to lab, closing gaps that sometimes appear in third-party distribution.

    Focus On Performance in Application

    Materials developers in high-energy chemistry or specialty pyrotechnics count on ammonium 2,4,6-trinitrophenoxide for sharp reactivity and reliable output. Over years, results show that drier product improves both metering precision and initiation reliability. In practical processing—whether charging small-scale detonators or blending pilot-batch propellants—moisture above spec can cause lag in ignition or unpredictable yields. We regularly sample output, simulate various operating climates, and adapt batch protocols, all to support field use where margins for error can narrow suddenly.

    On the line, we’ve fine-tuned product flow in our plant—using tailored sieving and air transport—to reflect setup on the customer end. From filling vibratory feeders to gravity discharge bins, we model each mechanical stress point to catch potential choke points before dispatch. Knowing that unplanned downtime or rework creates cost and safety implications for everybody, we invest in continuous operator education and incremental equipment upgrades.

    Environmental Commitment as Manufacturers

    Factoring in environmental impact sits at the heart of our plant-level decisions. Each step, from controlling emissions during nitrophenol synthesis to recapturing ammonium residues in washing streams, reflects our responsibility for minimizing waste. Over the last five years, on-site improvements in drying recovery and intelligent utility metering have cut resource usage per kilogram delivered. We work directly with local regulators to meet increasingly tough wastewater discharge requirements.

    Waste reduction doesn’t happen by accident. Adjusting batch sizes, keeping better tabs on raw input lots, and recycling filter materials help us limit the footprint of each order. Reputable end-users want not just a high-performance intermediate, but one that comes with clear records on origin, process, and emissions. Our plant management teams host annual visits for partners who want to review our process transparency firsthand—nothing written overrides what people can see and ask on site.

    Supporting Technical Innovation

    Customers in advanced materials research request not just a drum of product but detailed advice for integration into novel synthesis chains. Decades of technical support allow our chemists to anticipate common troubleshooting needs—like how to dissolve or disperse without hotspots, and what to do if an unexpected color shift appears late in the process. We design production schedules that wrap around specialized delivery timelines for research pilots and scale-up assessment. There’s no substitute for direct dialogue with the people behind the orders—an approach we’ve built up by seeing projects across countless bench-to-pilot moments.

    We also back innovators developing new energetic composites, where trace impurities from regular lots might destabilize long-term storage. For these projects, multiple purification steps and closed-system filling become part of the protocol. It’s here that direct plant access pays off; R&D customers gain more than just a chemical, but a manufacturing partner responsive to iterative requests and changing specs. Every new inquiry from the field yields fresh insight, informing product evolution on the shop floor and tightening our symbiosis with real world applications.

    Why We Stick With the Work

    Direct experience with the manufacture and shipping of Ammonium 2,4,6-Trinitrophenoxide over many years gives our team a special vantage point. Every stage—from raw material selection to plant maintenance and post-dispatch troubleshooting—feeds our confidence in the product. Challenges show up routinely. Weather events, market swings in nitrophenol feedstock, or unexpected changes in annual regulations all shape our ways of working.

    Still, shared perseverance in our shop has built a system robust enough to keep high-stakes customers running with their own production. The specificity of our process means each drum carries with it months of effort: monitoring, calibrating, hands-on sampling, and direct product stewardship from people who know what’s at risk if standards ever slip.

    Looking Forward

    Running a chemical manufacturing operation brings daily reminders of the need for vigilance, adaptation, and partnership. Ammonium 2,4,6-Trinitrophenoxide remains an essential ingredient for a broad spectrum of industries seeking controlled energetic performance and reproducibility. Each kilogram leaving our floor benefits from this cumulative knowhow and commitment. Whether supporting established production lines or helping bring new discoveries to market, we keep listening, learning, and refining what it means to provide genuine quality and reliability in the field of specialty chemical manufacturing.