Products

Ammonium Hexanitrodiphenylamine

    • Product Name: Ammonium Hexanitrodiphenylamine
    • Alias: Explosive D
    • Einecs: 208-823-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    540468

    Chemicalname Ammonium Hexanitrodiphenylamine
    Abbreviation HND
    Molecularformula C12H5N13O12
    Molarmass 527.26 g/mol
    Appearance Yellow crystalline solid
    Density 1.7 g/cm³
    Meltingpoint 206 °C (decomposes)
    Solubilityinwater Slightly soluble
    Primaryuse Explosive
    Explosivevelocity 7300 m/s
    Sensitivity Less sensitive than TNT
    Casnumber 1908-87-8

    As an accredited Ammonium Hexanitrodiphenylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 500g Ammonium Hexanitrodiphenylamine is packaged in a sealed, UN-approved, high-density polyethylene bottle with hazard labeling.
    Shipping Ammonium Hexanitrodiphenylamine is a highly sensitive and explosive chemical. Shipping must comply with strict regulations for hazardous materials, using approved containers, proper labeling, and documentation. Transport should be performed by licensed carriers specializing in explosives, with secure handling measures to prevent shocks, friction, or exposure to heat during transit.
    Storage Ammonium hexanitrodiphenylamine should be stored in tightly sealed containers, away from heat, flame, and sources of ignition, in a cool, dry, and well-ventilated area. It should be isolated from incompatible substances, such as reducing agents and strong acids. Store with appropriate signage and implement strict access controls. Regularly inspect for signs of decomposition or container leakage.
    Application of Ammonium Hexanitrodiphenylamine

    Applications of Ammonium Hexanitrodiphenylamine in Industrial Manufacturing

    Ammonium Hexanitrodiphenylamine serves as a specialized energetic material with established applications in specific sectors of chemical and defense manufacturing. As a direct producer, we supply this material to customers engaged in controlled and compliant industrial operations. Below we detail authentic downstream fields where this compound integrates into critical processes, including regulatory and technical aspects essential to large-scale operations.

    1. Primary Explosives in Percussion Detonator Manufacturing

    The compound is used as an initiating explosive in the assembly of percussion-type detonators. Formulators select it based on its reliable initiation threshold and compatibility with metallic housings. Material is batch-processed and combined with stabilizers and binders, then pressed into cups using automated systems regulated by strict safety protocols. Compliance with transportation and end-use documentation follows country-specific laws, with extensive in-process and final goods testing for sensitivity and performance consistency.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods, Manual of Tests and Criteria
    • SAAMI (Sporting Arms and Ammunition Manufacturers’ Institute) primer composition guidelines
    • U.S. CFR 49, Part 173 (Explosives and Hazardous Materials Regulations)
    • EN 13763: Components for detonators

    Typical usage ratio

    • Explosive charge content per detonator: 1.0%–3.0% of total mix, adjusted based on device output energy and ignition requirements

    Downstream process integration

    • Weighing and blending with antistatic agents and binders in Class 1 explosives-compliant facilities
    • Automated feeding and pressing into metal or plastic initiator cups
    • Controlled drying, continuity testing, and in-line sensitivity QC

    Final product types

    • Small-caliber percussion caps for small arms ammunition production
    • Initiators for blasting caps in mining
    • Detonator assemblies for military ordnance
    • Electrical and non-electric detonators for civil engineering demolition

    2. Booster Charge in High-Energy Initiator Systems

    Within the defense and mining sectors, this material functions as part of booster charges that bridge ignition compounds to main charges. Its reliable transition energy profile increases process safety in end-user applications. Downstream customers often require batch certification and traceability, integrating the material with other secondary explosives during controlled mixing, followed by compaction and encapsulation.

    Industry compliance standards

    • U.S. DoD MIL-STD-286C: Explosives, stability and composition testing
    • European ADR (Accord Dangereux Routier) regulations for explosive transport
    • ISO 9001:2015 (Quality management for explosive components)
    • Regulation (EC) No 1907/2006 (REACH) Annex XVII: Restrictions on specific substances

    Typical usage ratio

    • Blended at 5%–10% of booster pellet mass, tuned by initiation system sensitivity and main charge type

    Downstream process integration

    • Secondary mixing with plasticized energetic compounds
    • Granulation, hydraulic pressing, and shearing to uniform pellet size
    • Encapsulation under nitrogen atmosphere to eliminate moisture ingress

    Final product types

    • Booster pellets for seismic exploration charges
    • Initiating boosters for large-bore mining detonators
    • Military pyrotechnic initiator systems
    • Transfer charge packs for oilfield perforation devices

    3. Heat and Light Compositions for Signaling Devices

    Ammonium Hexanitrodiphenylamine offers controlled rapid exothermic decomposition, enabling its selection in heat and light-generating compositions for military and marine signal flares. Integration requires strict quality control and documentation of impurity levels. Customers evaluate raw material lots for predictable ignition and burn characteristics and blend with metal powders and oxidizers in dust-controlled, ventilated production lines.

    Industry compliance standards

    • IMO International Maritime Dangerous Goods (IMDG) Code, Section 2.1
    • U.S. Military Specification MIL-P-46676 (Pyrotechnics, composition, and performance)
    • EN ISO 9001:2015 (Quality management for pyrotechnics manufacturing)
    • Directive 2013/29/EU (European requirements for pyrotechnic articles)

    Typical usage ratio

    • 2%–7% by mass of total heat/light mix; adjusted to color and luminosity targets, with reference batch testing

    Downstream process integration

    • Dry blending into matrix with metal fuels (e.g., aluminum powder) and nitrate oxidizers
    • Mechanical granulation, pelletizing, and shaping under static-controlled conditions
    • Encapsulation in water-resistant casings

    Final product types

    • Red and white signal flares
    • Illumination cartridges for artillery shells
    • Target designation pyrotechnics
    • Smoke signal ejection charges

    4. Propellant Additive in Specialized Ammunition

    The compound is adopted as a sensitizing additive in composition-modified propellants for certain advanced small arms and specialty cartridges. It enables energy tuning for ballistics experiments and specific duty loads. Entry to the formulation line occurs after solvent-moist blending with nitrocellulose or nitroglycerin bases. Downstream quality control demands batch lot analysis for thermal stability and compatibility with intended casing metallurgy and primer composition.

    Industry compliance standards

    • SAAMI Propellant Composition Testing
    • ISO 17025: General requirements for laboratory competence
    • REACH Registration, Evaluation, Authorisation, and Restriction of Chemicals
    • U.S. ATF Part 555: Commerce in explosives

    Typical usage ratio

    • 0.5%–2.0% by weight of propellant blend, based on energy output curve and burn rate uniformity

    Downstream process integration

    • Wet milling into nitrocellulose/NG slurry under temperature-controlled, inert-atmosphere rooms
    • Extrusion or granulation into propellant grains
    • Cutting, drying, and surface glazing (graphitization)

    Final product types

    • High-performance rifle ammunition propellants
    • Experimental ballistic research cartridges
    • Custom load ammunition for precision shooting
    • Test and proof load cartridges

    5. Specialty Applications in Immunoassay Marker Synthesis (Research Grade Only)

    Limited quantities of research-grade material supply advanced laboratories exploring high-energy marker development for immunoassay diagnostics. Researchers utilize proprietary techniques to modify nitroaromatic backbones, incorporating the compound into polymeric markers for detection enhancement. Usage at this scale demands comprehensive tracking and secure storage, with batch validation required per analytical protocol.

    Industry compliance standards

    • OECD Good Laboratory Practice (GLP)
    • ISO/IEC 17025: Research laboratory QA
    • CLIA (Clinical Laboratory Improvement Amendments, USA) for research reagents (non-diagnostic use)
    • Local institutional chemical safety committee clearance

    Typical usage ratio

    • 0.01%–0.1% by mass in polymer conjugate; adjusted per assay protocol, with waste minimization and safe handling prioritized

    Downstream process integration

    • Synthesis or coupling within controlled research environments
    • Purification via column chromatography or precipitation
    • Formulation into lyophilized or stabilized diagnostic reagents (for investigational use only)

    Final product types

    • Prototype immunoassay markers
    • Calibration standards for high-sensitivity chemical analysis
    • Investigational research-use-only diagnostic reagents
    • High-energy tracer compounds (laboratory scale only)

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    Certification & Compliance
    More Introduction

    Introducing Ammonium Hexanitrodiphenylamine: Genuine Value from the Source

    Our Perspective on a Legacy Product

    Working on the production line, you get to know a chemical inside and out. Day after day, batch after batch, you watch raw components transform into a fine powder that industries across the globe rely upon. That’s how it goes with Ammonium Hexanitrodiphenylamine, known within the plant and among our technical teams as HND or Hexyl. It's been part of explosive and propellant technology for decades, well before most synthetics and specialty blends crowded the market. The value of Hexyl comes not only from its chemical properties but from the reliability, purity, and confidence it offers to those who put their trust in us as manufacturers.

    Production Quality Hidden in Every Gram

    Out on the factory floor, attention to detail isn’t a slogan; it’s the difference between a safe batch and wasted product. Our plant’s history with Hexyl traces back over twenty years. Each improvement—whether in filtration, drying, or mixing—stems from lessons learned through direct hands-on experience. Producing Ammonium Hexanitrodiphenylamine with batch consistency, minimal moisture, proper granule size, and ultra-low levels of residual acids goes beyond pledges and paperwork. We know from field returns and remote-site performance reports that a tiny slip in pH or excess caking can create serious challenges downstream.

    The product we ship today comes out as a free-flowing crystalline powder, easily handled in both manual and automated magazine packing. Granule size distribution, fine-tuned via calibrated sieves and controlled drying, remains strictly managed to avoid dusting and ensure compatibility with filling systems. We run purity checks on every batch using chromatography and gravimetric analysis, with real people watching for the tiny clues instrumentation might miss: changes in color, shift in odor, slight stickiness, or separation. These are the daily indicators our veteran team is trained to spot.

    Specifications from Daily Practice

    Model HND-928, our current main production line, is what most projectile and propellant powder producers request. Every kilo passes through moisture determination, confirming less than 0.1% water by weight before we sign off for packaging. Recrystallization filters out traces of process acids, and we keep heavy metal impurities to strict parts-per-million levels—a lesson reinforced many years ago when a contaminated batch produced abnormal test shots. Those minutes at the drying section, running temperature checks and flow tests, might seem repetitive, but they save hours of trouble for downstream users.

    Some clients opt for customized granule ranges or adjusted stabilizer blends, but these modifications never jeopardize the required detonation velocity or energy release. Our experience tells us that stability and shelf life trace directly back to every choice during synthesis. Storing Hexyl in dry, dark conditions extends its working life past five years, that’s proven by pulling old plant samples for real-world destruct testing. Every detail—from filter selection to packaging liner choice—directly affects the powder’s behavior in cartridge loading and field deployment.

    Applications: Where Hexyl Makes a Difference

    Call it an old-timer in the field of energetic materials, but Ammonium Hexanitrodiphenylamine continues to carve its niche where reliability, brisance, and manageable sensitivity matter most. Traditionally, it's found in army and aerospace operations, used as a base charge or main charge filler in artillery shells, shaped charges, and specialty demolition devices. Field units count on it for its steady chemical performance, especially in climates that swing from deep freeze to blistering heat.

    Where other compounds might suffer from excessive migration of plasticizers, Hexyl resists bleeding and caking. This becomes critical during long-term storage or under vibration stress—conditions military stowage or remote mining operations frequently encounter. Its ignition threshold, coupled with moderate shock sensitivity, sits well between readily initiated materials like PETN and higher-energy but more sensitive options. The formulation’s behavior during pressing and casting proves predictable, letting production lines keep output rolling.

    We hear back from field engineers that they appreciate the product’s workability in mixing with TNT, RDX, or minor phlegmatizers, maintaining handling safety during blending. The low hygroscopic nature, engineered in by thorough drying and consistent recrystallization, prompts fewer problems during humid months or in coastal setups. Arming crews comment on the reduction in misfire rates when switching from alternative fillers to our Hexyl, especially in older delivery systems nearing the end of service life. Stable, predictable energy transfer means fewer surprises when fractions of a second count.

    Differences: Hexyl and the Competition

    Market newcomers and seasoned professionals alike ask what sets Ammonium Hexanitrodiphenylamine apart from similar offerings. Some competitors focus on maximizing detonation pressure or raw sensitivity, trimming costs by cutting filtration or after-purification corners. Others switch to fully synthetic substitutes that promise easier blending but require oversized safety allowances. These shortcuts might bring a lower price tag but risk inconsistent burn characteristics, poor shelf performance, or contamination through unstable byproducts.

    Feedback from direct users tells a different story. Compared to standard secondary explosives, like Tetryl or composition B, Hexyl offers a sweet spot—high enough detonation velocity for use as booster or main charge, yet less shock-sensitive than primary explosives. This keeps lines running safer and keeps accident rates low. Its minimum critical diameter allows precise application in small charge shapes, outperforming alternatives like TNT when compact loading matters.

    Where competitors often sidestep visual and tactile inspection, preferring only digital batch records, our production relies equally on line experience. The degree of personal oversight, built from years of hands-on work, prevents quality drift and secures performance across changing batches. That detail comes from hours spent in production rooms, not from marketing materials or untested claims.

    Comparison with modern synthetics often boils down to long-term storage and operational effectiveness. While some newer formulations break down or destabilize after repeated temperature cycles, our Hexyl can still pass sensitivity and brisance testing after years in the depot. That consistency gives peace of mind to logistics teams faced with unpredictable shipping routes, customs inspections, or field storage in less-than-ideal conditions. Trusted performance trumps theoretical gains, especially where human safety and mission outcome are on the line.

    Supporting Reliable Use in Harsh Environments

    The real stories unfold not in our labs but in the field. We’ve heard from ammunition assemblers in desert climates about the advantages of dry, crystalline Hexyl compared to sticky, fire-prone or poorly insulated formulations. Our material, with its consistent particle size and minimal dust, cuts down on loader jams and blockages, even as temperatures soar above 40°C. That translates directly into higher productivity and lower maintenance needs.

    Responsibility to the end-user means more than delivering a finished product. We work with technical teams at client sites, offering troubleshooting drawn from firsthand solutions whenever challenges arise—inconsistent burns, humidity-related caking, or reaction rate drift. Rather than pushing another chemical answer, we share process insights honestly. That’s helped keep long-term relationships strong and improved incoming feedback, which in turn refines our own manufacturing process.

    We’ve noticed military and commercial clients revisiting legacy Hexyl lines after trials with alternative compounds falter—often due to poor long-term storage, unpredictable degradation, or difficulty in recycling post-use materials. Our detailed tracking and batch archiving, along with open access to lot-specific certificates and real-world testing, cut down on product recall risk and guarantee traceability from raw input to finished drum. That foundation isn’t built by chance; it comes from decades of cumulative experience.

    Environmental and Safety Perspectives

    Producing Ammonium Hexanitrodiphenylamine ethically comes with its own set of hard lessons. Effluent treatment, waste containment, and safety equipment demand constant vigilance. We’ve evolved from early years of venting through basic scrubbers to multi-stage filtration, closed-system handling, and regular air monitoring. That change didn’t come overnight. It grew from repeated audits, worker suggestions, and careful review of environmental incidents elsewhere in the industry.

    Dried Hexyl must stay sealed away from high heat and open flames, with static control built into all transfer lines. We fit production zones with real-time environmental alarms and train every team member in containment response, not just supervisors. Our accident rates sit well below the industry average, based on both injury-free hours and near-miss reporting. Improvements, like switching to automated bagging with anti-static liners, came out of concrete demands rather than empty promises.

    Disposal at end-of-life, whether leftovers from large-scale projects or expired inventory, is handled through our own neutralization and incineration procedures. Clients report that our detailed process documentation assists with environmental audits and regulatory filings, particularly in jurisdictions with tight controls on energetic materials. We view every outgoing shipment as a reflection of factory standards—missteps travel just as far and fast as well-made product.

    Traceability and Batch Consistency—More Than Just Numbers

    Talk to anyone from our production crew or QC line: we know our batches like old friends. Instead of responding to customer issues with generic statements, we pull archive samples, review line charts, and double-check every variable that might have shifted. This isn’t just about ticking boxes—it’s about preserving hard-won trust built over repeated orders and field results. Chemists compare notes each month, highlighting any pattern of off-coloration or granule drift, and we use that data to tweak process controls.

    Batch reporting, built into our software system, goes beyond paperwork for regulators. It informs real-time process improvements—shorter drying cycles, more thorough acid washes, or quick repairs to transfer valves. When equipment wears out, symptoms appear in the product before machinery breaks, so we monitor output closely and replace parts before downstream impacts occur. This vigilance gets painstaking at times, but the reward sits in stable shipments, clear feedback, and deep confidence from engineers using our Hexyl in critical infrastructure.

    Open Communication: Learning from Users

    Direct dialogue with handlers, loaders, and end-users feeds back into our work daily. Over the years, we've visited assembly plants, fielded calls from remote outposts, and reviewed field test logs alongside customer QA teams. Those conversations push us to address not just bulk metrics but real-world experience: improved non-caking, specific gravity tweaks, or custom particle size distribution to fit specialized loading tools.

    One example stands out—a customer in a northern climate struggled with cold-weather misfires, traced back to powder micro-clumping under extreme freezes. Working together, we adjusted our drying methods, switched to a lower-moisture finish, and saw performance jump in their tests the next winter. That wasn’t theory; it was hands-on, result-driven change that rolled out across later batches.

    We’re also seeing demand increase for more eco-friendly alternatives or recycled packaging. While Hexyl sits solidly as a legacy product today, we’re watching new environmental formulations closely, blending tradition with a push for lower-impact options where possible. This means exploring updated process solvents, greener stabilizers, and better effluent management without risking the product safety or efficacy our users have come to expect.

    Conclusion—What Sets True Manufacturers Apart

    Manufacturers who work elbow-to-elbow with the same product season after season tend to tell a clear story. With Ammonium Hexanitrodiphenylamine, each shift in process, every improvement in Purity, each lesson from a field failure or plant mishap, carves out a collective experience that shapes both the material and the people who make it. The product leaves our plant not simply as a shipment or SKU, but as a testament to real-world chemistry, built on lessons learned from every order filled and every new requirement answered.

    In an industry crowded with middlemen, speculators, and resellers, genuine manufacturing expertise stands out. The value of Hexyl isn’t just in its formula—it’s in the careful attention, adaptability, and knowledge of the people who bring it from basic compounds to trusted finished product. That’s how we see it, every day on the line.

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