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Ammonium Hexanitrodiphenylamine

    • Product Name Ammonium Hexanitrodiphenylamine
    • Alias Hexyl
    • Einecs 226-484-3
    • 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
    VTB
    Specifications

    HS Code

    480063

    Chemical Name Ammonium Hexanitrodiphenylamine
    Chemical Formula C12H5N13O12
    Molecular Weight 492.25 g/mol
    Appearance Yellow crystalline solid
    Density 1.72 g/cm³
    Melting Point Decomposes before melting
    Solubility In Water Insoluble
    Explosive Class Explosive (primary high explosive)
    Sensitivity To Impact High
    Synonyms Explosive D, Hexyl
    Usage Primarily used as a military explosive
    Stability Relatively stable under normal conditions
    Cas Number 131-73-7
    Color Yellow

    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 A 500g amber glass bottle with a red safety cap, labeled "Ammonium Hexanitrodiphenylamine, 99%," featuring hazard and handling warnings.
    Shipping Ammonium Hexanitrodiphenylamine is a sensitive explosive and must be shipped in compliance with hazardous materials regulations. It requires UN-approved containers, proper labeling, and secure packaging to prevent shock, friction, or exposure to heat. Transportation is restricted to authorized carriers, with full documentation and emergency instructions provided throughout transit.
    Storage Ammonium Hexanitrodiphenylamine should be stored in a tightly sealed, non-metallic container, away from heat, flame, and direct sunlight. Store in a cool, dry, and well-ventilated area, separated from organic materials, reducing agents, and combustibles. Avoid friction and impact. Properly label storage and restrict access to authorized personnel. Follow all regulatory guidelines for explosive and hazardous materials.
    Application of Ammonium Hexanitrodiphenylamine

    Applications of Ammonium Hexanitrodiphenylamine in Industrial Manufacturing

    Ammonium Hexanitrodiphenylamine is used in a limited number of high-security and regulated downstream industries, focused exclusively on advanced energetic formulations. The material’s performance characteristics restrict its application to precise, highly engineered products where consistency, purity, and compliance with international standards are mandatory in every lot. Below, we detail its roles in key scenarios with application-specific technical data.

    1. Primary Explosives for Detonators and Initiation Systems

    Manufacturers of military and commercial detonators incorporate this material into primary explosive compositions to exploit its enhanced thermal stability and reliable initiation properties. It forms the basis for detonator mixes in applications where safety and storage longevity are mission critical, supporting the production of ignition-sensitive components required by global defense and mining industries. Only licensed plants with engineered safety and containment processes can operate safely at these technical standards.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods (Model Regulations)
    • US ATF Explosives Regulations (27 CFR Part 555)
    • EN 13763 (European Standard for Non-Electric Detonators)
    • ISO 9001:2015 certified energetic materials QC systems

    Typical usage ratio

    • Ranges from 28–35% by weight in primary explosive blends, depending on the required sensitivity and mechanical strength—formulators adjust within this range to meet device specification and safety margin.

    Downstream process integration

    • Added during the wet-mixing and pressing stage for detonator charge mass filling, under solvent-damped or slurry-based manufacturing lines, followed by in-situ drying prior to capsule sealing.

    Final product types

    • Non-electric detonators
    • Electric initiation detonators
    • Delay and instantaneous blasting caps
    • Ignition squib assemblies

    2. High-Performance Booster Charges for Ordnance and Shaped Charges

    This compound finds unique use in intermediate booster formulations, where it bridges the sensitivity gap between initiators and main charges. Its ability to transmit shock reliably in extreme temperature conditions makes it critical to the assembly of shaped charges and certain military or aerospace ordnance. Only facilities with comprehensive traceability and capable of energetic input calibration deploy this material in their booster departments.

    Industry compliance standards

    • NATO AQAP 2110 Quality Assurance Requirements
    • US MIL-STD-1316 (Safety Criteria for Initiation Systems)
    • REACH Registration for Explosives Precursors
    • IMDG Code for International Maritime Dangerous Goods

    Typical usage ratio

    • Reduced loading: typically 8–18% by weight in composite booster matrices, with adjustments based on the main charge transition-to-detonation characteristics and desired critical diameter reduction.

    Downstream process integration

    • Dispersed dry-blended with secondary explosives during roll-milling, followed by isostatic pressing into booster pellets, or incorporated via slurry cast-molding in plastic-bonded charge liners.

    Final product types

    • Small-caliber shaped charge boosters
    • Artillery shell booster pellets
    • Oil & gas perforator charge boosters
    • Fragmentation warhead transfer charges

    3. Specialized Propellant Ignition Systems for Aerospace and Missile Applications

    Ammonium Hexanitrodiphenylamine’s rapid energy release and defined gas output make it suitable for use in ignition trains of solid rocket motors and specialty missile starters. Aerospace and missile integrators require this compound for safe, weather-insensitive arming devices, providing controlled ignition of rocket-grade propellants in variable thermal environments. Precision in particle sizing and trace vacuum-filling protocols characterize industrial users in this segment.

    Industry compliance standards

    • ECSS-Q-ST-70-38C (Space Product Assurance for Pyrotechnic Production)
    • US MIL-STD-1751A (Safety and Performance for Pyrotechnics and Propellants)
    • NASA-STD-8719.12 (Safety Standard for Explosives, Propellants, and Pyrotechnics)
    • ITAR compliance (US Export Regulations for Ammunition and Missiles)

    Typical usage ratio

    • Utilized between 2.5–7% by weight in composite ignition primers; ratios are adjusted on the basis of required burn rate and starter train length.

    Downstream process integration

    • Loaded into ignition cartridge presses as part of multi-stage charge assembly, generally after homogenizing pre-blended powders and prior to loading initiator containment vessels for motor installation.

    Final product types

    • Solid rocket motor igniters
    • Missile ignition cartridges
    • Space-launch vehicle starter assemblies
    • Satellite separation pyrotechnics

    4. Explosive Transfer Charge Filling in Fuze and Pyrotechnic Devices

    Manufacturers of advanced fuze and transfer charge elements apply Ammonium Hexanitrodiphenylamine in compositions designed to propagate precise detonation signals between sensitive primers and less sensitive explosive elements. The compound’s brisance, combined with controlled handling and metering, is critical in both military and high-value commercial explosive chain devices, where one-shot reliability in transmission is essential for system integrity testing and certification.

    Industry compliance standards

    • STANAG 4170 (NATO Standard for Explosives)
    • EN 13631-4:2002 (Explosives for Civil Uses – High Explosives)
    • US DOD Explosives Safety Board (DDESB): Technical Paper 21
    • ISO 2230 (Requirements for Storage of Explosives)

    Typical usage ratio

    • Integrated at 15–22% by weight in transfer compositions; formulated based on sensitivity grading and the length of explosive train within the device design.

    Downstream process integration

    • Metered into fuze sub-assemblies during automated dosing, prior to mechanical pressing of transfer lines or pelletizing for binary signal chains, followed by remote conditioning and sealing under inert atmosphere.

    Final product types

    • Electronic and mechanical artillery fuzes
    • Precision transfer charges
    • Detonation relay transducers
    • High-security pyrotechnic initiation devices
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    Certification & Compliance
    More Introduction

    Ammonium Hexanitrodiphenylamine: An Insider’s Perspective

    The Product at a Glance

    Manufacturing Ammonium Hexanitrodiphenylamine, often referred to locally as HND, brings a blend of technical challenge and responsibility. Through years at our plant, we refined our process for this yellow-green crystalline material, ensuring purity meets exacting standards required by demanding industries. The most recognized specification, often sought by engineers and procurement teams, follows the model HND-6. Choosing this material stems not just from a technical standpoint but from deep trust in clarity, consistency, and quality, values at the core of our manufacturing approach.

    Tried and Tested Through Real Production Runs

    Experience on the line has taught our team that every step in synthesizing HND matters. Traces of moisture, impurities in starting aromatic amines, or deviation in nitration conditions can shift properties. Our plant integrates robust filtration and multi-step purification. Our methods generate an HND that regularly exceeds the 99% purity mark. From my daily work, I can confirm that attention to minor process details shows up in the stability and performance of the final batch.

    Not every producer faces the same challenges. The temperature-controlled nitration, sequential drying, and tight containerization set apart manufacturer-driven approaches from what tends to come from repacking or trading. We oversee the entire chain. If a supplier leaves out quality checks at one intermediate step, the result can break downstream reliability. We focus on batch records, traceability, and on-the-floor audits. In practice, we retain retains and track exact lot origins in case a client encounters questions months later.

    The Realities of Factory Safety and Responsibility

    Nearly every week, safety meetings remind us that HND synthesis is not a routine chemical run. Open communication between engineering and safety teams drives our continuous investment in better ventilation and new blast-resistant structures. Strict controls on exhaust, fallback plans for batch quenching, and redundant monitoring exist to protect our team and community. These efforts exceed compliance and come from direct lessons learned after countless safe production cycles.

    Independent inspection agencies frequently visit our facility. Instead of simply checking regulatory boxes, our approach opens our process up, showing exactly how we protect operator health and minimize emissions. No shortcuts, no compromised steps. The physical handling of HND—most notably the fine dust stage—demands ongoing attention and discipline. Staff receive regular training. Over the years, these repeated drills have built a culture where safety isn’t an afterthought. Nobody along our supply chain wants surprises, so neither do we.

    What Sets Our HND Apart from Others?

    Plant-to-plant differences make one HND batch stand out from another. It often comes down to particle size, purity, and the absence of unwanted residuals. Our HND-6 offers a fine, uniform granule with minimal dustiness, helping downstream users avoid metering issues in their own charges. Other sources may advertise the same percentage purity, but our years of careful drying and sieving remove trace iron and other heavy metals, which could otherwise degrade performance or safety inside an explosive formulation.

    Laboratory analysis regularly verifies that our manufacturing steps limit biuret, unreacted amine, and any hydrolysis byproducts far below detection limits. We calibrate our process to hold water content consistently low, a difference visible even on routine Karl Fischer titration runs. Industry customers have commented directly that our material behaves more predictably during mixing and final use, which speaks to the control and consistency in our operation.

    End Uses Shaped by Practical Experience

    Most orders for HND come from the energetics sector. Formulation chemists require an oxidizer with not just strong detonation power but high stability and reliable delivery characteristics. Our direct discussions with field engineers—both civil and defense-related—show a major emphasis on shelf-life, sensitivity controls, and low impurity impact. Based on customer feedback, we tweaked our purification cycles and drying steps several years ago; the result helped minimize misfires and enhanced thermal stability.

    Research teams have explored HND in specialized pyrotechnic and propellant compositions. Its unique chemical structure, featuring nitro groups symmetrically bonded, delivers both a high oxygen balance and minimal metal content—key factors in generating cleaner burn profiles. Over the past decade, military specifications have called for traceable lot consistency, especially when qualifying new munitions batches. We keep direct lines of communication with end users to understand what changes in formulation trends might mean for ongoing HND development.

    Occasionally, requests arrive from advanced materials labs seeking small batches for academic investigation. Our technical staff fields these requests personally. Instead of automated responses, we use our years of experience to review whether our HND product fits each novel application, ensuring responsible handling advice accompanies every shipment.

    Addressing Controversies and Concerns

    Some headlines cast energetic compounds like HND in a negative light, highlighting incidents or regulatory pushback. From inside the plant, our view has always been one of transparency and strict controls. We share all relevant hazard documentation, keep lines open with environmental and labor authorities, and adapt our procedures to evolving regulatory demands. No substance manufactured or handled without clear oversight and a willingness to improve.

    Workshops with industry peers reveal that many mishaps can be traced to cutting corners in purification or improper storage conditions. Our policy forbids shipment without double-checked moisture levels and container seals. On-site, nothing gets dispatched until QA and compliance teams sign off together. It is this attitude, learned from decades producing HND, that earns our material repeat orders and clear preference from partners that require reliability above all else.

    The Future for HND: Innovation and Adaptation

    Markets rarely stand still. Recent years have seen research into greener, safer energetic systems. Our R&D side tracks these trends closely. We invest in waste minimization and are actively researching closed-loop solvent recovery to further lower our environmental footprint. If new regulations ask for lower emission baselines, we already have pilot lines ready to switch into lower-solvent runs. Technicians and engineers work side-by-side with chemists in our daily meetings, bringing know-how from years at the bench.

    Facing supply chain uncertainties, we built up local supplier networks for raw materials and maintain emergency inventory buffers. These redundancies safeguard delivery times and allow us to keep customers supplied, even if global sourcing becomes unpredictable. We believe in local manufacturing, strengthening community jobs and cultivating hands-on expertise over cheap offshore alternatives. The result: a plant where skilled jobs remain, material consistency holds, and quality stays high batch-to-batch.

    Direct Engagement with the End User

    Many engineers at customer sites value technical conversations with actual plant teams rather than impersonal emails from intermediaries. We routinely invite users to see our process in action and walk through their specific requirements together. Discussions go deeper than just specs on a paper; we hash out concerns about critical steps like blending and handling in their own plants, testing compatibility, and adjusting shipment formats as needed. Our door remains open to engineers, procurement leaders, and safety managers.

    If formulation needs shift—be it a tighter sieve cut, less fines content, or custom packaging—we don’t just promise change, we trial it ourselves and present data on how well each idea works. Such direct feedback improves every production step. The trust built over these conversations forms the backbone of lasting partnerships, a lesson we share within our team so every new staffer learns the value of steady customer relationships.

    Comparing HND to Other Energetic Materials

    The field of energetic chemicals features a spectrum of choices, each fitting specific roles. HND carves out its own space through strong thermal stability, low sensitivity to friction, and a distinct detonation profile. Compared to alternatives like PETN or RDX, our HND brings a different set of trade-offs—a slightly lower detonation velocity, yet a more forgiving handling profile in many common blend systems.

    We often get questions about why a lab or production site might switch from more standard oxidizers to HND. In our experience, it usually boils down to two core needs: controlled sensitivity and improved compatibility with legacy charge compositions. Our own samples, over repeated friction and impact tests, show HND offers a useful safety buffer for operators while maintaining potent energy output. Over many years of manufacturing, customer reports and our own internal trials confirm HND’s position as a reliable platform ingredient for both traditional and next-generation applications.

    Stability stands as a pivotal demand from the ordnance and mining sectors. Where storage in remote or variable climates becomes necessary, our batches of HND have maintained stable properties across long holding periods. This is not just marketing speak—it is the outcome of production runs that focus on tight control of crystal size, impurity removal, and strict drying. Each container shipped out reflects our own confidence, based on real data and the direct experience of our personnel.

    Quality, Community, and the Path Forward

    Producing Ammonium Hexanitrodiphenylamine is not just about overseeing a chemical process but shaping a relationship with users, regulators, and the wider public. We believe our manufacturing team’s direct expertise, combined with open communication and readiness to adapt processes, keeps us ahead. Through years of hands-on work, our technicians and engineers ensure each batch stands up to scrutiny, delivers promised performance, and fits the needs of the industry's most demanding sectors.

    Community engagement anchors our approach—you will not find us hiding behind intermediaries or offshoring tough questions. Open plant tours, candid safety briefings, and direct liaisons with local emergency services show our philosophy in action. Investing in high-skill manufacturing, environmental upgrades, and ongoing dialogue with end users forms the core of what we do. In a world increasingly concerned with traceability and accountability, our roots as a true manufacturer—rather than a remote trader—surface in everything from plant-floor safety talks to quality data shared alongside each shipment.

    Looking Ahead Together

    Navigating the evolving demands on energetic materials requires direct experience and willingness to change. As research trends hint at new performance and safety benchmarks, our team stands ready, drawing on decades of accumulated plant knowledge and continuing to seek out improvements in manufacturing, quality control, and waste minimization. Our legacy comes not from marketing claims but from the skill and vigilance of those who keep every batch true to its promise.

    With Ammonium Hexanitrodiphenylamine, users get more than a chemical—they acquire the confidence built on responsible manufacturing, transparent communication, and uncompromising attention to every aspect of what leaves our plant. This commitment continues to drive us, just as it has over the years, ensuring each shipment makes a real difference in the world’s most challenging applications.