Products

Ammonium Nitrate [Combustible Content >0.2%, Including Any Organic Matter Calculated As Carbon, Excluding Any Other Additives]

    • Product Name: Ammonium Nitrate [Combustible Content >0.2%, Including Any Organic Matter Calculated As Carbon, Excluding Any Other Additives]
    • Einecs: 229-347-8
    • 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

    116748

    Chemical Name Ammonium Nitrate
    Formula NH4NO3
    Cas Number 6484-52-2
    Combustible Content >0.2% (calculated as carbon, excluding other additives)
    Appearance White to off-white crystalline solid
    Melting Point 169.6°C
    Solubility In Water Very soluble
    Odor Odorless
    Molar Mass 80.04 g/mol
    Density 1.725 g/cm³
    Oxidizing Properties Strong oxidizer
    Explosive Risk High if contaminated with combustible materials
    Stability Stable under normal storage conditions
    Un Number 1942

    As an accredited Ammonium Nitrate [Combustible Content >0.2%, Including Any Organic Matter Calculated As Carbon, Excluding Any Other Additives] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 25 kg heavy-duty polyethylene bag, double-layered, clearly labeled with hazard warnings, sealed, and designed for moisture resistance.
    Shipping Ammonium Nitrate (combustible content >0.2%, including organic matter as carbon, excluding other additives) is typically shipped as a hazardous material under strict regulations. It must be transported in approved, sealed containers, away from heat, fire, and incompatible substances. Shipping documentation and labeling for oxidizing agents and environmental safety are mandatory.
    Storage Ammonium Nitrate (Combustible Content >0.2%, including organic matter as carbon) should be stored in a cool, dry, well-ventilated area away from heat sources, flame, and incompatible materials such as acids, alkalis, and combustible substances. Keep in tightly closed containers made of non-combustible materials. Storage areas must be equipped with spill control and fire suppression systems, minimizing contamination and exposure to sunlight or moisture.
    Application of Ammonium Nitrate [Combustible Content >0.2%, Including Any Organic Matter Calculated As Carbon, Excluding Any Other Additives]

    Applications of Ammonium Nitrate [Combustible Content >0.2%, Including Any Organic Matter Calculated As Carbon, Excluding Any Other Additives] in Industrial Manufacturing

    As a direct manufacturer of technical-grade ammonium nitrate with controlled combustible content, we supply this chemical for critical applications across several specialized industrial sectors. Our production experience ensures consistent quality that aligns with regulatory requirements and optimized process compatibility in each downstream scenario. Below are primary application areas for our product, with specific compliance, formulation, process, and end-use details based on current global industrial practices.

    1. Industrial Explosives Formulation (Mining and Quarrying)

    Ammonium nitrate with controlled combustible content serves as a key oxidizer in emulsified, ANFO, and slurry explosives used in open-pit mining, underground mining, and stone quarrying. Customers blend our product with precise proportions of hydrocarbon fuels and stabilizers to achieve reliable detonation velocity, oxygen balance, and humidity tolerance, critical for controlled blasting patterns. Technical purity and granulometry ensure batch-to-batch uniformity for automated bulk mixing units and cartridge production lines.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods Model Regulations
    • U.S. Bureau of Alcohol, Tobacco, Firearms and Explosives (ATF) Storage and Handling Rules
    • European Union REACH Regulation (EC) No 1907/2006
    • Occupational Safety and Health Administration (OSHA) 29 CFR 1910.109

    Typical usage ratio

    • Typically 80–94% ammonium nitrate by weight in ANFO blends, adjusted for porosity and oil absorption in base prill
    • For emulsions, 60–75% by weight, modified as per phase stability and shock sensitivity requirements

    Downstream process integration

    • Integrated at the start of emulsion matrix preparation or directly into bulk blending systems in plant or at blast site
    • Prilled material loaded into storage silos for direct feeding into vertical and horizontal mixers

    Final product types

    • Bulk ANFO explosives
    • Emulsion explosives (cartridged and bulk)
    • Watergel/slurry explosives
    • Packaged mining charges

    2. Nitrous Oxide (N2O) Gas Production

    Industrial nitrous oxide generation utilizes high-purity ammonium nitrate as the precursor. Thermal decomposition in specialized stainless-steel reactors produces N2O and water vapor, while adherence to combustible content limits ensures controlled reaction rates and minimizes risk of side reactions. Our carefully controlled organic carbon thresholds provide consistent gas yields for downstream purification and compression stages.

    Industry compliance standards

    • Good Manufacturing Practice (GMP) for Medical Gases, EU Directive 2001/83/EC
    • ISO 16644:2015 (Medical devices—Controlled nitrous oxide production)
    • FDA 21 CFR Part 211 for finished pharmaceuticals (for medical N2O)
    • International Society for Pharmaceutical Engineering (ISPE) guidelines

    Typical usage ratio

    • Feedstock: 100% ammonium nitrate, batch charged at process rates determined by reactor volume and desired N2O throughput
    • Combustible content must not exceed 0.2% by mass, strictly monitored by in-house QC

    Downstream process integration

    • Charged directly to thermal decomposition reactors operated at 240–270°C
    • Solid residue (ammonium nitrite) removed post-decomposition; product gas purified via scrubbing and drying columns

    Final product types

    • Compressed nitrous oxide USP cylinders for medical and dental use
    • Technical grade N2O for semiconductor and food-grade applications (e.g., aerosol propellants, whipped cream chargers)

    3. Agricultural Fertilizer Blending and Complex NPK Formulation

    We supply ammonium nitrate to compound fertilizer plants as a concentrated nitrogen source for urea-ammonium nitrate (UAN) solutions, granulated NPK (nitrogen-phosphorus-potassium) blends, and specialty foliar feeds. The strict management of combustible additives minimizes caking, promotes controlled nutrient release, and supports reliable mixing with phosphate and potassium raw materials under variable humidity and environmental storage conditions.

    Industry compliance standards

    • European Fertilizer Regulation (EU) 2019/1009
    • Food and Agriculture Organization (FAO) Fertilizer and Plant Nutrition Bulletin
    • International Fertilizer Association (IFA) codes of practice
    • U.S. Environmental Protection Agency (EPA) fertilizer use and labeling requirements

    Typical usage ratio

    • In UAN solutions: 17–24% by mass, based on target nitrogen content (28–32% N solutions)
    • In solid NPK blends: 10–35% by mass, depending on targeted N:P:K ratios and local agrochemical recommendations

    Downstream process integration

    • Dosed into blending tanks or direct granulation lines after milling and pre-moistening
    • Melted and mixed with urea, phosphates, and/or potassium salts in continuous or batch operations

    Final product types

    • Urea-ammonium nitrate (UAN) liquid fertilizers
    • Granular or prilled complex NPK fertilizers
    • Water-soluble nitrogen supplements for fertigation
    • Controlled-release specialty fertigation products

    4. Industrial Cold Pack Production (Instant Cold Compress)

    Our material finds use as the main endothermic agent in single-use and reusable chemical cold packs intended for medical and logistics cooling applications. The elevated purity and limited combustible content enable repeatable, consistent cooling curves after pack activation by water fracture, without introducing excess organic load or residue that may compromise pack shelf life or user safety. Particle size is controlled tightly to regulate dissolution rate and pack activation profile.

    Industry compliance standards

    • U.S. Food and Drug Administration (FDA) CFR 21 Part 880.6250 (Medical Cooling Pads)
    • Directive 93/42/EEC concerning medical devices (Class I non-sterile, EU)
    • EN ISO 10993-1: Biological evaluation of medical devices
    • ASTM D3570—Standard Performance Specification for Chemical Cold Packs

    Typical usage ratio

    • 70–90% ammonium nitrate by total pack weight, adjusted for desired cooling duration and volume
    • Ratio may be modified by ±10% depending on finished pack size and liquid activation volume

    Downstream process integration

    • Filling of laminated polymer pouches with granular product on automated weighing lines
    • Assembly with water sachet and mechanical sealing before final pack testing

    Final product types

    • Single-use instant cold packs for first aid and sports injury markets
    • Medical cooling compresses for inflammation and minor burns
    • Temperature-sensitive goods shipment cooling packs
    • Veterinary instant chill packs

    5. Airbag Inflator Gas Generant Manufacturing

    Many automotive safety component producers use high-purity ammonium nitrate as a solid gas generant for airbag and seatbelt pre-tensioner modules. The specified combustible content guarantees predictable exothermic decomposition and consistent N2 generation. Process validation focuses on minimizing secondary residues and maximizing pressurized gas output under rapid initiation, complying with strict reliability and safety assurance protocols established by leading carmakers.

    Industry compliance standards

    • UNECE Regulation No. 94 and No. 95 (Occupant Protection Requirements—Automotive Airbags)
    • ISO/TS 16949:2009 (Quality systems for automotive production and relevant service part organizations)
    • Major OEM-specific technical standards for inflator material purity and performance
    • SAE J211 (Instrumentation for Impact Test—Automotive)

    Typical usage ratio

    • 50–85% ammonium nitrate in gas generant formulations, with minor metallic fuel and binder additions as required
    • Final percentage determined by airbag system volume and deployment kinetics

    Downstream process integration

    • Compressed into wafers or tablets via high-speed tableting lines
    • Incorporated in single or multi-stage inflator cartridges, then tested in-ballast for gas output and ignition time

    Final product types

    • Driver and passenger automotive airbag inflators
    • Side curtain and knee airbag modules
    • Seatbelt pre-tensioner gas generators
    • Commercial vehicle and bus airbag inflator systems

    Free Quote

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    Certification & Compliance
    More Introduction

    Ammonium Nitrate with Combustible Content Greater than 0.2%: Practical Use, Production Know-How, and Industry Insight

    Understanding the Chemistry and Production Realities

    Working directly with ammonium nitrate that contains over 0.2% combustible content—including any form of organic matter measured as carbon—means you face a product distinctly different from standard fertilizer-grade ammonium nitrate. On the plant floor, every batch reflects careful balance. Manufacturers like us have to consider not only purity but also the role of trace combustibles and their impact on both safety and application. In modern facilities, advanced granulation and drying techniques keep impurities under strict control, yet the deliberate or incidental addition of organic matter gives this compound its unique standing.

    Factories running high-volume ammonium nitrate lines quickly learn how organic content shapes physical properties. Higher carbon content changes thermal stability, alters burn rates, and affects product compatibility with other chemicals—especially in the sectors where energetic behavior is sought. Managing these factors takes experience that can’t be faked by simple resale or repackaging.

    Relating Quality to Real-World Application

    Compared to low-carbon ammonium nitrate, the combustible-enhanced product finds heavy demand in sectors needing rapid gas production or controlled reactivity. In the explosives field—from quarrying to mining—clients expect reliable ignition profiles and predictable detonation velocities. These properties result not by chance but because plant engineers choose feedstocks and control synthesis steps, pulsing airflows and reactant ratios with a careful eye. Mistakes in carbon management show up fast: inconsistent burn or slow, unreliable reactions cause shutdowns and missed project deadlines.

    On the commercial fertilizer front, this higher-carbon variant rarely enters mainstream agriculture due to regulatory layers and greater sensitivity to storage and handling conditions. Producers actively avoid cross-contamination among batches, as fertilizer-grade ammonium nitrate typically restricts combustible content to enhance storage stability and keep within legal thresholds. By contrast, the combustible-rich formulation serves niche needs where rapid oxidation or energetic decomposition is not a hazard but a necessary feature.

    Specifications and Product Models—What Really Matters Beyond the Label

    Talking about "models" and "specifications" often draws too much focus to labels and standard test certificates. Here, real-world reliability rides on the consistency of the in-plant process. Typical ammonium nitrate for industry with >0.2% combustible content sits in the prill or granular form, with particle sizes adapted to downstream blending needs. Our team manages strict flow rates and temperature profiles, always mindful of moisture control—since water content can destabilize storage or, on the other side, leave the product too dry for safe handling.

    Production reactivity, hygroscopic tendencies, free-flow characteristics, and detonation sensitivity differ across manufacturers, often separated by seemingly minor steps at the neutralization, evaporation, or cooling stage. We continually invest in equipment upgrades and process analytics that help catch batch variations early. In the plant, you are never far from HPLC stations, Karl Fischer titrators, and real-time combustion analyzers. Such investments aren’t luxuries. In a field where a tenth of a percent in carbon means a seismic shift in behavior, our job is to guarantee that the >0.2% standard is not just met on average but met each time with as little variation as chemistry allows.

    Hands-On Experience—Learning from Years on the Line

    Long years in chemical manufacturing have taught us what textbooks forget about ammonium nitrate with elevated carbon. Handling procedures change—anti-static measures become central, bagging takes longer, and every new storage tank earns its own electrostatic discharge audit. Direct exposure to the challenges of storing and shipping this compound informs everything from contract terms to warehouse layout.

    Try skimping on airflow in the drying tower or let cooling lag during a humid spell, and product starts caking, fines form unmanageable dust, or—worst of all—self-heating pockets appear in transit. On the ground, safety for workers and environment shapes every step. Our full-time safety staff regularly reworks storage schemes and shipping protocols in light of minor changes in carbon spec or raw material source. We have learned not to trust any control more than we've verified it; double-checking becomes habit, not paranoia.

    Differences That Count—Why the >0.2% Combustible Content Marker Matters

    No credible producer blurs the line between standard ammonium nitrate and this higher-carbon compound. The difference isn’t academic. For one, higher carbon plus trace organic content brings different regulatory attention. Transportation falls subject to national and international codes that turn largely on carbon content—DOT, ADR, and IMDG all draw lines at levels tipping over 0.2%. We work alongside customers and regulators during each shipment, not just to tick boxes but to prepare site operators with updated MSDS sheets, real-world spill drills, and audit trails.

    A more energetic compound calls for special handling. In mining and civil blasting, users rely on our precise QA/QC records to know their product won’t surprise them with erratic behavior. Even buyers familiar with bulk ammonium nitrate notice the telltale signs: denser prills, slightly off-white coloration, or detectable odor from certain organic carbon traces. These aren’t defects; rather, they stem directly from meticulous carbon modulation.

    Contrast this with ultra-low-carbon grades destined for direct soil use, where stability and slow release of nitrogen into crops take priority. Here, the risks of fire, caking, or spontaneous decomposition must drop close to zero—so additives absorb moisture and bind dust, strictly avoiding combustible organics. That’s a wholly different manufacturing philosophy and plant architecture from the one underpinning high-combustible products.

    Safety and Regulatory Leadership: Facing Real-World Challenges

    Decisions in high-carbon ammonium nitrate production carry broad implications. Our sector has faced well-publicized incidents, and every operator shoulders a duty to go beyond baseline safety. Training cycles run continuously, especially in QA labs and packaging halls. Real-world safety means vetting even the smallest supplier for raw organic materials, logging storage temperatures round the clock, and running regular mock incident drills.

    Every plantworker learns the unique risks higher-combustible ammonium nitrate brings. Heat sources stay segregated, forklifts and conveyors run on explosion-proof systems, and staff wear arc-rated PPE. Our engineering teams design specialized ventilation and dust recovery to keep airborne concentrations below regulatory thresholds and keep both product and people safe.

    Regulatory teams stay locked in to changes in UN transport codes and regional chemical control statutes. As the criteria for "technical ammonium nitrate" or precursor chemicals shift, we adapt batch labeling, shipment documentation, and plant security. The burden of proof for responsible throughput falls heaviest on those of us closest to the synthesis reactors. This is where manufacturing experience translates directly into safer industry standards and credible compliance.

    Application-Specific Perspectives from the Factory Floor

    Industry partners look to us for more than just bags of product—they want guidance rooted in the daily realities of technical ammonium nitrate use. In quarrying and demolition, our customers need ammonium nitrate that blends consistently with fuel oil or emulsifiers, yielding a predictable energy release profile. Here, just a few tenths of a percent in combustible content make the difference between clean breakage and incomplete fume releases.

    Field support draws on factory knowledge of how inputs change output behavior. If a blaster reports slower than expected velocities, we trace backward to the organic load in their batch, drawing on near-field analytics from plant records. Sometimes, it turns out that a minor raw material change months prior reverberates all the way to the end user. This keeps our technical teams on their toes, correlating every spec shift with downstream effects.

    From packaging to railcar loading, everyone works minute by minute with a sense of the consequences of error in mind. Customers know plant staff by name, and feedback flows directly into process upgrades—a level of accountability unknown in hands-off distribution chains.

    Continuous Improvement: Meeting Demand Without Compromising Integrity

    Fulfilling specialty orders for high-combustible content ammonium nitrate has always demanded balancing throughput with integrity. Scaling up batch capacity never excuses lapses in precursor purity or process control. We’ve invested in automatic sampling and digital batch tracking, allowing customers full product traceability from raw reagent to finished drum.

    Plant operators running shifts at night carry deep responsibility: any misread in moisture content or component ratio runs risks far beyond out-of-spec product. "Measure twice, produce once" remains the daily mantra. Recurring investments in training and continuous process monitoring prevent knowledge loss during staff turnover, so every new operator understands the difference that a few grams of extra carbon can make.

    Logistics, Storage, and Distribution Grounded in Manufacturing Experience

    High-carbon ammonium nitrate brings unique logistics challenges. Even with well-designed silos and cooled conveyors, a day’s humidity swing can tip a shipment into clumping or trigger regulatory stop-orders. We operate dual-track routing systems—one for direct consignment to heavy industry, and a separate, strictly monitored channel for export, complete with enhanced anti-tampering protocols.

    Warehouse layouts arise from hands-on lessons: aisle separation for firebreaks, ventilation zones mapped to seasonal wind patterns, regular offloading drill runs to keep staff practiced. Our experience negotiating with authorities during audits and inspections translates to smoother, predictable customer service. Because audit trail transparency is non-negotiable, every shipment moves under documented chain of custody—something that only comes with close manufacturing oversight, not casual middleman trade.

    Innovation Driven By Need, Not Hype

    Product specialists embedded in manufacturing take pride in the details most outside observers miss. Experience led us to modify tower spraying rates when dusting spiked—yielding cleaner prills for easier blending. A feedback loop from customer complaints about clumping led R&D to trial new drying cycles and organic source controls, which cut hot spot formation. This cycle of direct experience—problem, analysis, adjustment—keeps quality stable and product safety as high as possible.

    We keep a sharp eye on international best practices, but always filter those techniques through real, local experience. Not every "process improvement" travels well; adaptable, grounded plant procedures protect both our product quality and our reputation.

    End-User Education and Shared Responsibility

    Manufacturers share a duty to educate users of combustible-rich ammonium nitrate about responsible handling and regulatory obligations. We regularly partner with end customers for on-site training, not just to demonstrate safety practices, but to transfer the sense of real consequences that laboratory warnings alone can’t convey.

    Workshops and field visits deepen trust and stop problems before they begin. Learning from both customer and staff incidents means feeding the lessons learned back into every shift handover. Mutual trust and open reporting—without finger-pointing—set the tone for safer, more effective use.

    The Real Value of Experience—Trusted Production, Trusted Product

    Long before any bag leaves our gates, a layered team of operators, chemists, safety staff, and supply managers weighs in. Everyone from reactor operators to QA techs understands that producing ammonium nitrate with elevated combustibles is about much more than hitting a figure on a COA.

    Decades refining our process mean we can back every claim with practical evidence. The granular reality of each shift—how a change in upstream ammonia source or a bump in input water pH plays out in final combustion metrics—reminds us the plant is as much classroom as production center.

    Customers choose our ammonium nitrate because real-world experience underpins every shipment. Our promise is simple: expertise from production to packaging, informed by the challenges only direct manufacturing brings. As regulation, technology, and market needs move forward, our focus never strays from consistent quality, responsible stewardship, and practical support for every end user whose work depends on our product.

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