Products

Hydrazine Hydrate [Hydrazine Content ≤ 64%]

    • Product Name: Hydrazine Hydrate [Hydrazine Content ≤ 64%]
    • Alias: Hydrazine hydrate
    • Einecs: 206-114-9
    • 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

    443487

    Chemicalname Hydrazine Hydrate
    Hydrazinecontent ≤ 64%
    Molecularformula N2H4·H2O
    Molecularweight 50.06 g/mol
    Appearance Colorless, fuming, oily liquid
    Odor Ammonia-like
    Meltingpoint 2°C
    Boilingpoint 120.1°C
    Density 1.03 g/cm³ (at 20°C)
    Solubility Miscible with water
    Vaporpressure 17 mmHg (at 25°C)
    Ph 11.1 (100 g/l, H2O, 20°C)
    Casnumber 7803-57-8
    Unnumber UN 2030
    Flashpoint 72°C (closed cup)

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

    Packing & Storage
    Packing The chemical is packaged in 200-liter blue HDPE drums, securely sealed, and labeled with hazard warnings and content specifications.
    Shipping Hydrazine Hydrate (Hydrazine Content ≤ 64%) is shipped as a hazardous material under UN2030, Class 8 (corrosive), and Class 6.1 (toxic). It must be packed in approved corrosion-resistant containers, kept tightly sealed, and transported with appropriate labeling and documentation, complying with relevant international and local regulations for dangerous goods.
    Storage Hydrazine Hydrate (Hydrazine Content ≤ 64%) should be stored in tightly closed, corrosion-resistant containers in a cool, well-ventilated, and dry area, away from direct sunlight, heat sources, and incompatible materials such as oxidizers and acids. Storage areas must be equipped with spill containment and proper labeling. Avoid contact with air and moisture. Personal protective equipment is essential when handling.
    Application of Hydrazine Hydrate [Hydrazine Content ≤ 64%]

    Applications of Hydrazine Hydrate [Hydrazine Content ≤ 64%] in Industrial Manufacturing

    Hydrazine Hydrate, manufactured and controlled to a hydrazine content not exceeding 64%, supports critical chemical transformations in several tightly regulated industrial sectors. Below, we outline the specific application environments, use levels, process roles, and qualifying end-products shaped by real-world downstream deployment.

    1. Polymerization Initiator for Polymeric Foams

    In the production of various polymeric foams—such as azodicarbonamide-free vinyl foams—our hydrazine hydrate functions as a chemical blowing agent precursor or initiator. Its highly controlled purity ensures consistent gas evolution during thermal decomposition, directly impacting cell structure uniformity in the finished foam. Stringent process controls guard against impurities affecting foam density or compressive strength in end-use environments, such as automotive interiors and building insulation materials.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 (Europe)
    • ISO 4589 for polymeric materials safety
    • RoHS Directive 2011/65/EU (when used in electronics foam)
    • UL 94 Flammability Standards (foam end-use testing)

    Typical usage ratio

    • Commonly 0.1–3 wt% of the polymer resin mass, adjustable based on foam density specification and cell size requirements

    Downstream process integration

    • Charged with resin and auxiliary agents in high-shear blending prior to thermal molding or extrusion step

    Final product types

    • PVC and EVA foamed sheets
    • Automotive seat pads
    • Thermal insulation boards
    • Shoe soles and sports mats

    2. Oxygen Scavenger in Boiler Water Treatment

    Industrial steam generating systems, including high-pressure and power plant boilers, utilize hydrazine hydrate as a critical oxygen scavenger to prevent corrosion and extend equipment lifespan. Precision dosing is mandatory for operational safety and to comply with effluent standards regarding hydrazine discharge. Advanced automation ensures consistent feed proportional to dissolved oxygen levels and boiler makeup water volumes, with residual concentrations continuously monitored by plant safety systems.

    Industry compliance standards

    • EN 12953-10 (Shell Boilers Water Quality Requirements)
    • ASTM D1385 (Oxygen Scavengers for Boiler Systems)
    • EPA 40 CFR Part 423 (Steam Electric Power Generating Effluent Guidelines, US)
    • TÜV SÜD certified plant water treatment protocols

    Typical usage ratio

    • 10–20 mg/L (ppm) in feedwater, optimized based on oxygen ingress, flow rates, and target residual hydrazine below 0.1 mg/L in steam

    Downstream process integration

    • Continuously dosed into deaerator storage or condensate return prior to feedwater entry into the boiler drum, typically via monitored dosing pumps

    Final product types

    • High-pressure process steam
    • Condensate for closed-loop recycling
    • Corrosion-inhibited hot water supply

    3. Reducing Agent for Pharmaceutical Intermediates

    Pharmaceutical synthesis procedures, particularly for certain pyrazole and triazole active pharmaceutical ingredients (APIs), require this material as a selective reducing and deblocking agent. Due to regulatory scrutiny, every batch must meet EP, USP, and ICH guidelines for residual solvents and elemental impurities. The process environment demands controlled reaction rate and lowest possible bioburden, routinely validated by in-process quality control and trace analysis.

    Industry compliance standards

    • ICH Q7A Good Manufacturing Practice Guidance for Active Pharmaceutical Ingredients
    • Ph. Eur./USP/JP (depending on API export destination)
    • 21 CFR 211 (Current Good Manufacturing Practice for Finished Pharmaceuticals, US FDA)
    • Chinese Pharmacopoeia for local API manufacture

    Typical usage ratio

    • Stoichiometrically, typically 0.85–1.2 equivalents relative to substrate; fine-tuned to limit excess and minimize downstream purification needs

    Downstream process integration

    • Applied during condensation or cyclization steps within glass-lined or stainless reactors equipped with inert gas blanketing

    Final product types

    • Pyrazole, triazole, and related heterocyclic API intermediates
    • Pharmaceutical grade fine chemicals
    • Final bulk API forms after successive purification

    4. Propellant Fuel Precursor in Aerospace Applications

    Space propulsion and satellite thruster manufacturers adopt our hydrazine hydrate as a feedstock for monopropellant and bipropellant fuel preparation, subject to highly specialized purification and drying steps to meet MIL-spec and NASA standards. Material batches undergo stringent metal ion and organic impurity screening, with traceability back to reactor lots, ensuring propulsion system reliability and minimizing risk of catalyst bed fouling in engines.

    Industry compliance standards

    • MIL-PRF-26536E (Military Specification for Hydrazine, Anhydrous)
    • NASA-STD-6001 (Materials and Processes for Spacecraft and Launch Vehicles)
    • ESA ECSS-Q-ST-70-21C (European Space Agency Hydrazine Compatibility)
    • ISO 14644 (Cleanroom and contamination control for propellant loading)

    Typical usage ratio

    • Converted and further concentrated on-site; typical initial feed: 50–64% hydrazine hydrate, yielding neat anhydrous hydrazine for direct loading or mixed with methylhydrazine at specified molar ratios

    Downstream process integration

    • Subjected to vacuum distillation, drying, and metal ion scrubbing before micro-dosed into pressurized tank systems for fueling reaction control thrusters and main engines

    Final product types

    • Monopropellant and bipropellant chemical thruster fuels
    • Satellite attitude control propellant charges
    • Emergency power units for launch vehicles

    5. Synthesis of Agricultural and Agrochemical Intermediates

    Agrichemical manufacturers utilize this material as a key nitrogen donor in the synthesis of triazole fungicide intermediates and plant growth regulator building blocks. Reaction parameters must account for safe handling and precise stoichiometry, with in-line monitoring of unreacted hydrazine to ensure no trace remains in the final crop-safe molecules. Batch-to-batch QC reports trace hydrazine decomposition rates and conversion efficiency to satisfy export and domestic regulatory standards.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practice (GLP) for agrochemical development
    • FAO and WHO Specifications for Plant Protection Products
    • GB 2763 Maximum Residue Limits for Pesticides in Food (China)
    • EPA FIFRA (Federal Insecticide, Fungicide, and Rodenticide Act, US)

    Typical usage ratio

    • Calculated at 1.05–1.25 molar equivalents per targeted intermediate, depending on required nitrogen incorporation rate and yield optimization

    Downstream process integration

    • Added directly to batch or continuous reactors during synthesis of triazole and hydrazide intermediates; reaction conducted under controlled temperature to avoid excessive exotherm

    Final product types

    • Triazole fungicide precursors (e.g., tebuconazole, propiconazole intermediates)
    • Hydrazide derivative synthesis for crop protection
    • Plant growth regulator intermediates

    6. Heavy Metal Precipitant in Industrial Wastewater Treatment

    Operators of electronics, plating, and specialty chemical plants employ hydrazine hydrate for targeted precipitation and removal of heavy metal ions, particularly copper and nickel, from industrial effluent streams. Its reductive action facilitates the formation and separation of insoluble elemental metal or metal hydrazides, minimizing hazardous waste and enabling closed-loop water use in compliant operations. Dosing control links directly with online spectrophotometric analysis and regulatory discharge reporting.

    Industry compliance standards

    • ISO 14001 Environmental Management Systems
    • US EPA Clean Water Act 40 CFR 433 (Metal Finishing Point Source Category)
    • EU Directive 2010/75/EU (Industrial Emissions, IED)
    • China GB/T 31962-2015 Integrated Wastewater Discharge Standard

    Typical usage ratio

    • 5–40 mg/L, dynamically optimized in relation to influent metal ion load and target effluent concentrations usually below 1 ppm for regulated metals

    Downstream process integration

    • Dosed into reaction tank or clarifier as final polishing step after conventional precipitation, followed by filtration or flotation of metallic precipitates

    Final product types

    • Compliant treated water for plant reuse or discharge
    • Recoverable metal sludge
    • Electroplating waste solid residues

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    Certification & Compliance
    More Introduction

    Hydrazine Hydrate [Hydrazine Content ≤ 64%]

    Introduction From the Manufacturer

    Our team at the plant works with hydrazine hydrate daily. For many of us, it’s more than a line item or a drum leaving the yard — it’s a chemical that has shaped our process lines, the relationships we build with end users, and even the way we train newcomers on the floor. Hydrazine hydrate with a hydrazine content of ≤ 64% matters both in industrial chemistry and in safe, sustainable operations. We’ve pushed our production lines, safety checks, and control systems for years to deliver a product that consistently meets this specification, and we believe our hands-on experience gives us a useful perspective about how this chemical fits into the broader landscape.

    Hydrazine Hydrate in the Real World

    Each batch goes through our reactors with a clear goal — to blend purity, concentration, and stability so the liquid that comes out is exactly what a formulator expects at ≤ 64% hydrazine by weight. This number reflects years of experience reconciling lab results, regulatory expectations, and process performance. Customers request this concentration for good reason: at 64%, hydrazine hydrate offers a highly concentrated source suitable for downstream dilution or use as is, depending on the process. Lower concentrations extend shelf life and ease of handling, while higher levels approach physical and safety limits where risk dramatically jumps.

    In our region and abroad, we see this concentration move straight from tankers into water treatment plants, synthetic fiber production, and a suite of organic synthesis applications. Users value its ability to act as a reducing agent, an oxygen scavenger, and a precursor for various specialty chemicals. What often goes unsaid is just how closely the stability and reactivity of hydrazine hydrate tracks with its water content. At ≤ 64%, the balance between safety, cost, and end-use flexibility plays out in daily operations across many industries — having that margin below pure hydrazine helps customers hit productivity targets without venturing into territory where logistics and hazard controls become prohibitive.

    Model and Specifications Shaped By Experience

    While catalog numbers and spec sheets have their place, real familiarity comes from years watching how a product behaves in the field. Our ≤ 64% material doesn’t just meet a number on a page. From sampling points throughout production, we monitor impurities common to the process — trace metals, oxidizable matter, and acidity. Finished product leaves our site with a crystal-clear color and characteristic sharp ammonia-like odor, and we track every drum with batch records that echo our own on-the-ground findings.

    We see how hydrazine hydrate reacts with other process streams, how temperature fluctuations change risk profiles, and why even small deviations in pH can shift performance. Over long production runs, we’ve tested material for compliance with international standards — and found that values lower than 64% simplify shipping and regulatory paperwork in many markets. We maintain tightly controlled dilution and purification steps, not just for compliance but because it spills back into applications. Hydrazine hydrate of this concentration consistently provides steady reaction rates and predictable oxygen scavenging in steam circuits, where dosage must match dissolved oxygen levels without overshooting and causing excess residual.

    Applications Informed By Field Use

    Decades on the production line and in customer support have helped us understand precisely how customers draw value from hydrazine hydrate at ≤ 64%. In water treatment plants, operators dose our product into high pressure boilers to control corrosion. At this concentration, the liquid dissolves readily, making it easy to introduce to feedwater over a wide range of temperatures. System reliability improves when dissolved oxygen drops and scaling slows, as we’ve seen from feedback on thousands of installations.

    In polymers and pharmaceuticals, chemists tap our hydrazine hydrate for its clean, predictable reduction chemistry. The ≤ 64% grade provides ample hydrazine activity with enough water present to moderate exothermic reactions. Formulators often comment on the importance of minimizing byproducts, and the clarity of our product helps them spot impurities before they ever reach a reactor. In agricultural and photographic chemicals, this same property delivers predictability and product consistency — a necessity in industries where quality checks run through every shift.

    Many users prefer our ≤ 64% hydrazine hydrate for practical reasons. Handling is less hazardous compared to higher concentrations, as there’s more water to buffer temperature changes and reduce vapor pressure. As a result, standard chemical storage equipment and basic ventilation suffice in many cases, offering a significant operational advantage. In our experience, safety officers appreciate the well-documented stability of this grade, as emergency protocols align with real-world product behavior.

    Comparing ≤ 64% Hydrazine Hydrate to Other Variants

    On factory tours and industry meetings, we’re often asked why hydrazine hydrate is so commonly supplied at ≤ 64%. The answer isn’t just inertia; it’s a blend of technical performance and operational convenience. Higher content forms, such as anhydrous hydrazine or hydrazine hydrate above 64%, deliver more reactant per drum, but bring severe handling risks. These grades show rapid vaporization, create greater fire hazards, and demand specialized equipment resistant to more aggressive corrosion. We’ve tested them in controlled circumstances and required additional safeguards at every turn.

    Lower strengths, like 40-55% solutions, find niche uses where heat sensitivity or reactivity must be tightly controlled, yet across the majority of mid-to-large scale operations, ≤ 64% remains a practical maximum, allowing customers to maximize throughput without overwhelming their facility’s engineering controls. Consistent with the findings from our risk assessments, this grade lets chemical handlers minimize exposure without sacrificing productivity.

    We also field questions about substitution. Some customers wonder if they can swap hydrazine hydrate for other reducing agents — sodium bisulfite, for example. Over many product trials, we document clear differences. Hydrazine hydrate achieves rapid, thorough oxygen removal that alternatives can’t match, especially at high temperatures. It serves as a unique precursor for specialty chemicals, such as foaming agents and pharmaceuticals, that call for its specific reactivity. By adjusting only the strength, we help customers fine-tune their process yields, safety margins, and waste treatment protocols.

    Quality Control: Lessons Learned Over Decades

    Every operator on our team knows the importance of tight controls. Hydrazine hydrate may arrive in a simple drum, but the reliability a customer receives depends on what happened over hours or days in reaction vessels, filtration units, and storage tanks. Early in our plant’s history, we saw what happens when specifications drift — customer runs slowed, scrap climbed, and even safe handling procedures occasionally had to shift. That’s why we hammered out standard operating procedures that include in-process sampling, redundancy in temperature and level control, and batch tracking from raw material to finished drum.

    We calibrate our analysis tools regularly. All hydrazine hydrate solutions leaving our site must meet visual clarity, pH range, density, and assay requirements established from years of application feedback. When water or hydrazine measurements fall outside our targeted window, we recirculate and adjust until the batch achieves spec — with internal record keeping that documents course corrections for future review. We frequently consult international standards and customer requirements to ensure alignment, while product performance reports loop back to production for continuous improvement.

    Safety and Environmental Considerations

    As a chemical that has attracted regulatory attention, hydrazine hydrate demands respect at every step from synthesis to packaging. At ≤ 64%, the material sits at the threshold where physical and environmental hazard controls can still moderate incident risk. On our site, workers dress in appropriate PPE and handle materials using closed systems and local exhaust ventilation, drawing on incident data that has shaped decades of global best practices.

    We maintain comprehensive training for all plant staff, covering not only the direct risks of hydrazine exposure but also the correct response to leaks, spills, and accidental releases. Regular drills and inspections keep us sharp, while spill control kits and containment sumps reduce environmental impact. On top of worker safety, we monitor effluent streams and air emissions — any off-grade material goes through neutralization and strict discharge procedures. From a regulatory perspective, supply at ≤ 64% concentration matches global best practices for transportation, storage, and disposal, simplifying compliance and reducing paperwork burdens for both ourselves and our partners.

    For customers, the safety story extends to on-site operations. We counsel users on storage and handling—keep tanks under nitrogen, avoid heating above recommended limits, and stick with compatible materials like stainless steel or lined vessels. Our field support attends customer sites for large projects, advising on real-world issues such as sampling, transfer, and residual treatment. In all these activities, experience shapes the advice we provide, reflecting hundreds of installations and years of incident investigation both here and at customer plants.

    Supply Reliability and Customer Support

    Chemical production rarely follows a perfect path. Over the years, we’ve dealt with supply interruptions, new regulations, and customer production emergencies. Hydrazine hydrate at ≤ 64% forms a backbone of repeatable, stable production for clients who simply can’t afford downtime. We learned, after several market swings, to reinforce our own raw material supplies, maintain surplus capacity, and invest in back-up logistics so that customers receive the same product week in and week out.

    Our technical support staff fields customer questions not just during commissioning, but as new requirements arise — maybe to source material for a new process, or to validate compatibility with equipment upgrades. Sometimes challenges pop up that draw on unique properties of hydrazine hydrate, like byproduct management, foaming control, or regulatory audits. Each of these needs feedback that stretches beyond what a typical certificate of analysis offers. If an unexpected reactivity issue appears or a process audit flags an out-of-spec drum, we pull up batch records, revisit operating data, and work directly with customer teams to reach a solution.

    This collaborative approach helps us spot opportunities for efficiency. Maybe a customer running older boilers wants to shift to lower dosage rates, or a polymer plant needs to minimize trace metals in product. Because we maintain extensive archives of real-world applications, our chemists and process engineers come prepared with direct, practical suggestions. Rather than steering everyone to a single “standard” way of using hydrazine hydrate, we offer targeted, experience-driven options that reflect the complexity of modern processing.

    Looking Ahead: Continuous Improvement in Manufacturing

    Over time, regulations tighten, feedstocks fluctuate, and new technologies enter the market. Producers that rest on old habits risk falling out of step with both safety best practices and customer needs. On our site, process improvements never really stop. We update filtration and purification systems to boost yield and reduce impurity carryover, and we adopt new monitoring technology as it becomes proven. Our laboratory team spends significant time validating new titration and spectroscopy methods to further tighten product control.

    Our relationship with customers also guides future product development. If new applications demand slightly higher or lower hydrazine concentrations — or if existing users signal a trend toward alternate chemistries — we retool processes and stay ready to offer custom solutions. These adaptations reflect both regulatory realities and the hands-on knowledge accumulated from every order filled. Feedback loops between the production floor and client operations sharpen our ability to anticipate change, whether around concentration limits, packaging formats, or new customer sectors.

    Sustainability also steers our decision-making. Hydrazine chemistry can be energy-intensive and requires scrupulous waste management, so we invest in recycling where feasible, and work to shrink our process water footprint. The same effort goes into emission controls and packaging choices, shifting toward materials with a lower environmental impact. Our team’s core philosophy: safe, predictable chemical manufacturing only works as part of a complete chain from raw material to end-use, with responsibility at each step.

    Conclusion: The Value of Proven Experience

    Hydrazine hydrate at ≤ 64% stands as a practical concentration, forged through years of manufacturing, application, and ongoing improvement. Across water treatment, chemical synthesis, polymer production, pharmaceuticals, and beyond, we supply this product because it matches the needs and safety profiles of global industries. Our role extends beyond just producing a liquid — we’ve grown as partners in problem solving, advocates for best practice, and stewards for both safety and environment.

    Through every batch produced and every drum shipped, we carry forward lessons learned: keep specifications tight, support users with real expertise, and adapt to changing industry demands. This mindset is what gives our customers confidence — not just in hydrazine hydrate at this concentration, but in the fabric of experience, reliability, and technical partnership we bring as the manufacturer.

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