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Anhydrous Hydrazine [Hydrazine Content >64%]

    • Product Name Anhydrous Hydrazine [Hydrazine Content >64%]
    • Alias N2H4
    • Einecs 206-114-9
    • 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

    844059

    Chemical Name Anhydrous Hydrazine
    Formula N2H4
    Cas Number 302-01-2
    Molecular Weight 32.05 g/mol
    Appearance Colorless, fuming liquid
    Odor Ammonia-like
    Purity >64% hydrazine content
    Boiling Point 113.5°C (236.3°F)
    Melting Point 2°C (35.6°F)
    Density 1.021 g/cm3 at 20°C
    Solubility Miscible with water
    Flash Point 24°C (75°F, closed cup)
    Vapor Pressure 14 mmHg at 25°C
    Ph Alkaline
    Autoignition Temperature 270°C (518°F)

    As an accredited Anhydrous Hydrazine [Hydrazine Content >64%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Packaged in 200-liter steel drums, sealed and labeled, containing anhydrous hydrazine (hydrazine content >64%) for industrial use.
    Shipping Anhydrous Hydrazine (Hydrazine Content >64%) must be shipped in tightly sealed, corrosion-resistant containers under inert atmosphere. Transport is typically by specialized tanker or approved cylinders, labeled as Class 8 (corrosive) and Class 3 (flammable) hazardous material. Strict temperature control, ventilation, and compliance with international shipping regulations are mandatory.
    Storage Anhydrous Hydrazine (Hydrazine Content >64%) must be stored in tightly closed, corrosion-resistant containers in a cool, well-ventilated, dedicated chemical storage area, away from heat, sparks, open flames, and incompatible materials such as oxidizers or acids. Storage areas should have spill containment, temperature control, and proper labeling. Hydrazine should be protected from direct sunlight and sources of ignition, with restricted access to trained personnel only.
    Application of Anhydrous Hydrazine [Hydrazine Content >64%]

    Applications of Anhydrous Hydrazine [Hydrazine Content >64%] in Industrial Manufacturing

    As a direct manufacturer of high-purity anhydrous hydrazine, we supply raw material to established partners across key industrial supply chains. Our product quality, traceability, technical support, and delivery reliability enable large-scale, compliant application in critical industries requiring strict formulation accuracy and closely controlled processes. Below, we provide a detailed overview of practical downstream scenarios where anhydrous hydrazine serves as an essential raw material, covering compliance, addition ratios, process integration, and targeted end-product output.

    1. Aerospace Thruster Propellant Formulation

    Satellite and spacecraft propulsion developers use anhydrous hydrazine as a primary monopropellant in onboard thruster systems for orbital maneuvering, station keeping, and attitude control. Hydrazine’s energy density and decomposition characteristics provide effective impulse performance within compact engine designs, aligning with aerospace requirements for consistent, clean propellant ignition under vacuum and thermal range fluctuations. Manufacturers governing material intake carry out documented purity checks and energetic testing to fulfill both safety and operational mandates at scale.

    Industry compliance standards

    • U.S. MIL-PRF-26536 and MIL-SPEC-8795 propellant grade standards
    • NASA-STD-6016B (Materials and Processes Requirements)
    • ESA ECSS-Q-ST-70C (Cleanliness and Material Compatibility)
    • AS9100 Aerospace Quality Management System

    Typical usage ratio

    • Pure hydrazine dose at 95–100% monopropellant load; diluted as required by system specification or ignition protocols, typically with trace water control <0.1%

    Downstream process integration

    • Injected directly into monopropellant tanks via closed, inert-gas purged transfer lines
    • Systems integrate hydrazine conditioning before feeding into plate or catalyst bed reactors for hypergolic ignition
    • Integrates with leak detection and real-time thermal conditioning systems before engine delivery

    Final product types

    • Satellite orbital maneuvering thrusters
    • Launch vehicle reaction control engine packs
    • Deep space probe propulsion modules

    2. Blowing Agent Production for Polymer Foams

    Industrial foaming manufacturers employ anhydrous hydrazine as a critical reactant in the synthesis of azodicarbonamide (ADC), the most widely used chemical blowing agent for PVC, polyolefins, and rubber-based foams. The material’s reactivity under controlled oxidation enables precise gas generation, allowing downstream partners to modulate foam density, cell structure, and elastic rebound for a variety of automotive, footwear, and packaging products. Production sites implement closed handling, pH regulation, and effluent air treatment to comply with health and environmental directives.

    Industry compliance standards

    • REACH Regulation (EU) No 1907/2006—hydrazine SVHC authorization protocol
    • ISO 9001 and ISO 14001 for QC and environmental controls
    • GB/T 20804-2022 (China National Standard for Blowing Agent Quality)
    • OSHA 29 CFR 1910.1200 (Hazard Communication for chemical processing)

    Typical usage ratio

    • Reactant ratio for ADC synthesis: 0.8–1.1 mol hydrazine per mol dicarboxylic acid; process adjusted based on molecular yield requirements and downstream foam cross-link density targets

    Downstream process integration

    • Fed into jacketed batch or continuous reactors with sodium carbonate and azodiformic acid
    • Temperature controlled to maintain complete reaction with byproduct removal
    • ADC intermediate filtered, dried, and micronized as masterbatch ingredient or pre-blend

    Final product types

    • PVC flooring and wall panel foam
    • Lightweight automotive interior components (door panels, instrument boards)
    • Shoe sole and insole foams
    • Protective packaging foamed sheets

    3. Water Treatment Oxygen Scavenger Synthesis

    Major boiler water treatment chemical producers use anhydrous hydrazine for the on-site formulation of trace-iron and oxygen scavenger solutions, reducing residual dissolved oxygen in high-pressure industrial boilers and closed-loop cooling systems. Hydrazine’s efficient reactivity at low concentration enables rapid deoxygenation without introducing additional hardness or ionic impurities, supporting strict control of scaling and corrosion factors in power station and process steam cycles.

    Industry compliance standards

    • ASME Consensus on Operating Practices for Control of Feedwater and Boiler Water Chemistry
    • EN 12953-10:2003 (Shell boilers—Requirements for boiler feedwater and boiler water quality)
    • Japanese Industrial Standard JIS K0101
    • ISO 14001 certified management of water chemical handling

    Typical usage ratio

    • Dosage in oxygen scavenger formulations: 0.5–1.5 ppm hydrazine per ppm dissolved O₂; concentration determined by water volume and targeted O₂ residual (<20 μg/L for high-pressure boilers)

    Downstream process integration

    • Metered addition into boiler makeup water at deaerator or directly into feedwater line
    • Inline mixing and monitoring via automated dosing pumps with redundancy failsafes
    • Residual O₂ and hydrazine monitored by continuous sampling before entry to boiler drum

    Final product types

    • Oxygen scavenger chemical solutions (for power plants, refineries, chemical plants)
    • Packaged boiler feedwater treatment products
    • On-site dosing services for industrial maintenance providers

    4. Agricultural Chemical Intermediate Manufacturing

    Downstream agrochemical synthesis operations employ anhydrous hydrazine as a building block for key hydrazine-carbamate herbicides and fungicides. The high reactivity and controllable selectivity of hydrazine in Step 1 condensation reactions enables targeted synthesis of actives such as maleic hydrazide and fluazinam, with process parameters tightly linked to yield optimization, impurity control, and regulatory traceability within agricultural input standards.

    Industry compliance standards

    • FAO/WHO Combined Specifications for Pesticides
    • ISO 9001:2015 for agrochemical synthesis and QC
    • Good Manufacturing Practice (GMP) for active ingredient production
    • REACH post-registration supply chain reporting for hydrazine intermediates

    Typical usage ratio

    • Feed ratio: 1.0–1.2 mol hydrazine per target carbamate or azine product batch, adjusted per purity checks and reaction completeness monitored via HPLC

    Downstream process integration

    • Batch addition under inert nitrogen atmosphere in sealed reactors
    • Temperature and pH strictly regulated from condensation to crystallization steps
    • Subsequent treatments include solvent extraction, washing, and stage filtration to control contaminants

    Final product types

    • Maleic hydrazide-based herbicide concentrates
    • Fluazinam active technical grade material
    • Hydrazone fungicide intermediates
    • Custom-formulated crop protection agents

    5. Pharmaceutical API Intermediate Synthesis

    Select pharmaceutical manufacturers integrate anhydrous hydrazine in the controlled synthesis of isoniazid and hydralazine, both key pharmacological actives, under GMP batch conditions. Strict control of reaction temperature, stoichiometry, and impurity profile supports compliance with medicinal quality pathways, and enables reliable scale transition from pilot to plant manufacturing for regulated drug ingredient supply.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP/NF (United States Pharmacopeia/ National Formulary) for active ingredient quality
    • European Pharmacopoeia (Ph. Eur.) monographs for APIs involving hydrazine intermediates
    • FDA 21 CFR Part 211—Current Good Manufacturing Practice for Finished Pharmaceuticals

    Typical usage ratio

    • Hydrazine loading: 1.0–1.05 mol relative to target precursor to ensure complete conversion and minimize toxic residue; dosing managed via in-line monitoring and validated batch records

    Downstream process integration

    • Introduced into glass-lined reactors with controlled heat transfer and exhaust monitoring
    • Integrated in condensation or cyclization steps as first or second-stage synthesis depending on the API
    • Secondary purification via crystallization, solvent extraction, or chromatography as specified by active monograph

    Final product types

    • Isoniazid bulk API
    • Hydralazine hydrochloride technical material
    • Intermediate blocks for further API synthesis (e.g., phenylhydrazines)

    6. Industrial Gas Production—Ultra-High Purity Nitrogen Generation

    Industrial specialty gas plants utilize anhydrous hydrazine in reactive decomposition processes to supply ultra-pure nitrogen gas for semiconductor, lighting, and laboratory applications where trace oxygen and hydrocarbons must be minimized below parts-per-billion. The precise control and high conversion in catalytic reactors allow gas processors to meet semiconductor tool suppliers’ expectations for purity and total background contamination.

    Industry compliance standards

    • SEMI F6 (Semiconductor Equipment and Materials International Gas Purity)
    • ISO 14644-1/Cleanroom Classifications for downstream users
    • ASTM D2865 (Purity of Ultra-High Purity Nitrogen)
    • IATF 16949:2016 for automotive electronics supporting industries

    Typical usage ratio

    • Hydrazine decomposition input: 0.34 kg per 1 Nm³ nitrogen output, rate adjusted by catalyst efficiency and nitrogen recovery targets

    Downstream process integration

    • Heated vapor-phase direct feed into platinum- or iridium-catalyzed decomposition towers
    • Reaction gas scrubbed, filtered, and analyzed in multi-stage purification trains before cylinder or bulk on-site storage
    • Continuous online analysis to assure ppb impurity levels for semiconductor-grade applications

    Final product types

    • 99.99999% (7N) purity nitrogen gas cylinders
    • Bulk nitrogen for silicon wafer cleaning and etching
    • Ultra-pure nitrogen generators for advanced laboratory instrument supply

    7. Reducing Agent Feedstock in Metal Surface Treatment

    Large-scale metal finishing operations, including electronics plating and high-reliability connector manufacturing, formulate electroless nickel and silver plating baths using hydrazine as a tailored chemical reducing agent. Hydrazine’s effective electron donation properties provide fine-tuned metal deposition control, especially for high-complexity part geometries where uniformity and deposit hardness remain production-critical. Operators frequently link hydrazine dosing to inline bath composition analytics for process optimization.

    Industry compliance standards

    • IEC 62321 for the determination of hazardous substances in electronic components
    • ASTM B607—Specification for Electroless Nickel Coating
    • RoHS/ELV directives for end-use electronic assemblies
    • ISO 9001:2015 for plating bath formulation QC

    Typical usage ratio

    • Hydrazine content in plating bath: 0.02–0.12 mol/L, tuned based on desired deposition rate, substrate reactivity, and bath service life

    Downstream process integration

    • Direct dosing into agitated plating tanks equipped with temperature, pH, and agitation controls
    • Integrated into recycling/plating solution maintenance systems for closed-loop production lines
    • Process monitored by titration or ion-specific probes to ensure consistent metal ion reduction

    Final product types

    • Electroless nickel-plated connectors for telecom hardware
    • Silver-plated electronic contact pins
    • Wear-resistant automotive transmission components
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    Certification & Compliance
    More Introduction

    Anhydrous Hydrazine [Hydrazine Content >64%]: High-Purity Drive for Key Industries

    Our Approach to Producing Anhydrous Hydrazine

    Dedicated manufacturing begins with deeply refined raw materials. Anhydrous hydrazine with hydrazine content greater than 64% stands out for those who require uncompromising performance in each batch. Over years of hands-on production, every part of the process points to strict moisture control and removal of oxygenated impurities. Dehydration doesn’t stop at typical grades—our teams use proprietary rectification steps to reach consistently high hydrazine concentration and to keep trace contaminants at bay.

    Comparing to aqueous hydrazine and low-grade solutions, the shift to hydrazine content above 64% brings a step change in reactivity, storage sensitivity, and suitability for demanding industrial applications. Only the purest hydrazine can support the most sensitive and high-value use cases, and high content is critical, not only for the reaction yields, but also for minimizing by-product formation in downstream chemistry.

    Why Quality Anhydrous Hydrazine Matters

    For propellant and chemical synthesis markets, even small moisture levels can spark corrosion, impact reaction rates, and create safety hazards. Hydrazine above 64% answers that need for dryness and chemical purity. Major players in aerospace demand high content for auxiliary power units and satellite station-keeping, where reliability leaves little room for batch inconsistencies. In industrial settings—blowing agents, polymerization, metal treatment—our high-content anhydrous hydrazine assures that ingredients don’t introduce unwanted variables tied to water or unstable residues.

    We do not compromise on matched batch-to-batch purity. Chemical and physical property measurements—like NV (non-volatile residue) content, color, and specific gravity—give visible confidence, but the true value comes from sustained on-spec output. It takes years of process optimization to keep distillation columns stable, stripping out less-volatile impurities and handling hydrazine’s natural instability during storage and transfer. This effort translates into safer handling and performance promises backed by lived experience, not marketing copy.

    Specifications Built Around Application Needs

    Our standard anhydrous hydrazine comes in purity ranges with hydrazine content typically exceeding 64% by weight, achieving a water content below 1%. Those numbers result from hundreds of runs and quality checks in process, never by averaging questionable lots. Storage tanks and packaging undergo nitrogen purges and micro-leak testing to rule out atmospheric moisture pick-up, since even a day’s exposure can drag hydrazine strength below industrial targets. For these reasons, packaging matters just as much as distillation—pressure-rated containers with anti-siphon fittings and compatibility-tested linings hold product quality from filling to end use.

    Key applications for this material stretch into rocket fuels, gas generators, and advanced pharmaceuticals. Hydrazine’s unique ability to act as a high-energy reducing agent gives synthetic routes extra leeway, letting chemists skip secondary clean-ups. Only anhydrous, high-content material prevents side reactions that would knock both yield and selectivity out of line—especially in high-pressure, batch-processed lines where even minor impurities multiply risks over time. For the fuel cell industry, tight limits on chloride, metals, and carbonate contamination ensure system durability, and that assurance rests on clean hydrazine to start.

    Understanding the Differences: Anhydrous vs. Hydrous Grades

    Many users discover that not all hydrazine products follow the same rules. Hydrous hydrazine—hydrazine hydrate—commonly shows up for less-sensitive or bulk scale applications where final water content won’t derail operations. In this form, hydrazine comes dissolved in water, with grades spanning from about 35% up to 64%. Performances diverge especially in processes where water shifts equilibrium, dilutes reducing power, or worsens corrosion profiles. Anhydrous grades solve these practical problems for end users.

    Our experience in root-cause troubleshooting for customers shows that switching from a dilute solution to high-content or anhydrous hydrazine quickly resolves constraints: faster reactions, cleaner product isolation, extended catalyst lifetimes, and cut maintenance costs on equipment exposed to repeated wetting-drying cycles. Strict users—like those in high-energy materials and pharmaceutical intermediates—recognize the savings from paying for pure input at the start, compared with the headaches of reprocessing, product recalls, or safety incidents.

    Critical Handling and Safety Insights

    Hydrazine demands a detailed respect in handling. Teams running large-scale plants rely not only on up-to-date regulatory training, but on hands-on practices—double-sealed transfer lines, strict leak detection, remote-control valves, and blast-resistant filling rooms. It pays off to invest in rigorous equipment design and operator training. Factory experience confirms that every extra step—such as real-time vapor monitoring or multi-level safety interlocks—cuts the odds of costly incidents and supports the reputation of this powerful reagent.

    We maintain open records of near-miss events and lessons learned. For instance, even in well-designed systems, unexpected valve failures or substandard gaskets can introduce water or let vapor escape, posing risks to health and batch quality. Years spent refining process windows have shown that the costs of skipping small process checks show up fast: fouled reactors, lost batches, or forced plant stops. In this field, the up-front effort to keep hydrazine pure and dry pays off far beyond the cost of extra controls.

    Comparing to Other Suppliers—Experience Shapes Product Reliability

    In today’s chemicals market, plenty of hydrazine on offer fails to meet strict production or logistics requirements. Traders and resellers may promise purity, but cannot vouch for run-to-run consistency or guarantee clean storage conditions. As a manufacturer, our teams track each drum from reactor to delivery. Analytical traceability—batch fingerprinting, cross-lab purity checks—ensures no degradation, no unauthorized blending, and no swapped drums in inventory.

    We know the low points in the market: old stock, contaminated hoses, and cut corners in purification that sacrifice product quality for headline price. These shortcuts carry real-world dangers in critical applications. Placing reliability and technical support above spot pricing creates long-term partnerships that benefit both ends of the supply chain. Feedback from long-standing clients fuels improvements in process and packaging, with transparency about success and failure alike.

    Performance Backed by Real-World Testing

    Every batch designed for propellant or fine chemical use faces a gauntlet beyond in-house analytics. End-users—large and small—subject sample lots to re-testing under their own operating conditions. Differences in storage, ambient humidity, or downstream blending sometimes reveal hidden issues. Responding to this feedback loop, we have tailored not just process analytics, but real-world field trials. Our on-the-ground support includes technical visits, troubleshooting on user sites, and co-developing solutions to emerging problems.

    Through direct participation in launch trials, pharmaceutical audits, and specialty polymer campaigns, our technical teams have rooted out sources of lost yield, contaminant build-up, and system compatibility issues that escape routine lab screening. The upshot is confidence—buyers know they are specifying a product already proven in critical systems, not just passing acceptance tests.

    Applications Demanding High-Purity Anhydrous Hydrazine

    End use drives our approach to anhydrous hydrazine quality. Industries that shape modern technology—space travel, electronics, advanced material synthesis, and medicine—count on batch reproducibility for safety and regulatory compliance. In satellite propulsion and thruster systems, only high-concentration, water-excluded hydrazine can provide uniform ignition characteristics and predictable engine performance. Spacecraft engineers depend on hydrazine’s clean burn and energetic profile; any deviation in content or impurity levels can threaten mission success.

    In pharmaceutical manufacture, hydrazine comes into play at key steps in active ingredient synthesis. Specific reactions demand tight stoichiometry and minimum side product formation. Even trace inorganics or excess water can derail complex step sequences, leading to non-compliant products. Here, high-purity hydrazine closes loopholes in contamination and improves batch success rates. Chemists in these fields recognize the direct correlation between input quality and regulatory pass rates, and value consistency built into every delivered container.

    For advanced polymers and blowing agents, downstream process economics rest on effective gas yields and smooth, controlled reactions. Water-diluted hydrazine forces overuse, wastes raw material, and piles on extra separation burdens. Our anhydrous product lets process engineers dial in exact amounts for predictable foaming, polymerization, or reduction outcomes—enabling tight control without constant troubleshooting.

    Technical Challenges and Our Solutions

    Every step in hydrazine’s life cycle presents technical risks. Hydrazine’s chemical reactivity and toxicity require more than standard chemical plant design. We apply years of process refinement to break bottlenecks in dehydration and distillation. Multi-stage rectification paired with in-line impurity monitoring shrinks variability and catches quality drifts before filling reaches the warehouse. Meticulous vapor phase analytics, managed pressure control, and process automation squeeze out weak points where the smallest misstep can lead to compromised output.

    Protecting finished product through packaging and transport means strict control over containers, atmospheric exposure, and transit vibration. We source drums and tanks from suppliers who match our quality expectations—each lot passes compatibility and leak testing. Storage facilities rely on continuous nitrogen blanketing and vapor scrubbing, rejecting aged or dented tanks outright. These steps shield hydrazine from air and moisture, controlling both chemical integrity and user safety from factory floor to customer warehouse.

    In field support, technical representatives address user-specific challenges—modifying delivery schedules, consulting on equipment upgrades, or troubleshooting process interruptions caused by external contamination. This direct, ongoing involvement means that solutions reach beyond specifications to answer practical on-site realities.

    Improving Sustainability in Manufacturing and Use

    Broader industry trends push all players to reduce both direct and indirect impacts from hazardous chemicals. Hydrazine production, even at high purity, cannot ignore environmental stewardship. We prioritize closed-loop processing—solvent recovery, gas capture, and energy re-use—across both synthesis and product handling. Long-term investments in emission abatement and water treatment reduce risks for staff, communities, and users.

    Users also benefit from material efficiency. High-content hydrazine, by delivering more active product per shipment, cuts logistical costs, emissions from freight, and packaging waste per unit of finished output. In applications where only anhydrous content works, our customers maximize reaction potential and leave less behind as off-gas or diluted residue. By designing for both quality and resource efficiency, we close the loop between regulatory demands and practical benefits for plant operators.

    Why Our Anhydrous Hydrazine Stands Out

    Years spent refining each production parameter—feedstock purity, column design, storage integrity—have taught us lessons that no specification sheet shows. High-content anhydrous hydrazine isn’t just another chemical—each container is proof of careful manufacturing, curated logistics, and technical backup. For industries where reliability and output drive both reputation and economics, we commit to building that value into every batch.

    Repeat business comes from trust built on delivered performance. Clients know they are buying the product used in critical missions, vetted by independent labs, and backed by support that won’t vanish after the shipment leaves our gates. Advances in application fields—from next-generation composite materials to medical synthesis—push us to challenge our own limits, and user feedback keeps our drive for better answers alive.

    Anhydrous hydrazine above 64% content serves as proof that focus on process control, purity, and customer needs can turn a commodity into a critical enabler for tomorrow’s breakthroughs. Our journey as a manufacturer has always relied on honest feedback, real-world testing, and relentless pursuit of consistency. Each new application, audit, or challenge only strengthens our commitment to raise industry benchmarks for safety, quality, and reliability.