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Mercury Oxide

    • Product Name Mercury Oxide
    • Alias Mercuric oxide
    • Einecs 215-535-7
    • 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

    945255

    Chemical Name Mercury Oxide
    Chemical Formula HgO
    Molar Mass 216.59 g/mol
    Appearance Red or yellow solid
    Melting Point 500°C (decomposes)
    Density 11.14 g/cm³
    Solubility In Water Insoluble
    Cas Number 21908-53-2
    Toxicity Highly toxic
    Oxidation State Of Mercury +2
    Main Uses Laboratory reagent, source of pure mercury, component in batteries

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

    Packing & Storage
    Packing Brown glass bottle with a tightly sealed cap, labeled “Mercury Oxide, 100g, Toxic,” and hazard symbols for safe laboratory use.
    Shipping Mercury Oxide should be shipped securely in tightly sealed, corrosion-resistant containers, clearly labeled with hazard warnings. It must be transported as a toxic and environmentally hazardous material, compliant with relevant regulations (such as DOT, IATA, IMDG). Avoid contact with incompatible substances and store in a cool, dry, well-ventilated area during shipment.
    Storage Mercury oxide should be stored in a tightly sealed container, clearly labeled, and placed in a cool, dry, well-ventilated area away from incompatible substances such as reducing agents and organic materials. It should be protected from light and moisture. Storage areas must be secure and have appropriate spill containment and ventilation to avoid mercury vapor exposure. Use only with proper safety precautions.
    Application of Mercury Oxide

    Applications of Mercury Oxide in Industrial Manufacturing

    Mercury oxide serves as a critical raw material in several highly regulated sectors, where its chemical characteristics enable precise industrial processes. We support downstream manufacturers by ensuring consistent material quality for each specific application area. Below, we detail its principal applications with relevant compliance, formulation guidance, integration stages, and resulting finished goods.

    1. Primary Batteries (Zinc-Mercury Button Cells)

    Battery manufacturers use mercury oxide predominantly for producing miniature primary batteries, especially button cells for watches, hearing aids, and instrumentation. Its stable electrochemical properties ensure reliable voltage over cell life. Mercury oxide functions as a main cathode material, blended with zinc anode components in precise formulations to balance capacity, leakage prevention, and operational safety. Environmental regulations tightly govern sourcing, handling, and waste due to toxicity.

    Industry compliance standards

    • IEC 60086-1: Primary batteries – General
    • EU Battery Directive 2006/66/EC (Mercury restrictions and disposal)
    • RoHS Directive 2011/65/EU (hazardous substances)
    • United States EPA Universal Waste Rule 40 CFR Part 273

    Typical usage ratio

    • 15–40% by weight of total cathode mix, depending on required discharge profile and cell size. Proportion adjusted to optimize voltage stability and minimize gassing.

    Downstream process integration

    • Mixed with conductive carbon and binders during slurry preparation
    • Deposited onto current collector strips
    • Integrated during electrode assembly, followed by casing and sealing under controlled atmosphere

    Final product types

    • Zinc-mercury oxide button cells for watches
    • Hearing aid batteries
    • Medical device miniature batteries
    • Professional test and measurement instrument batteries

    2. Specialty Electrical Switches and Relays

    Precision switch and relay manufacturers incorporate mercury oxide in low-current, high-reliability contact assemblies. It helps suppress arc formation and prolong contact life due to unique redox characteristics. Mercury oxide layers are deposited or applied onto contact surfaces using specialized physical or chemical processes for aerospace, military, and critical industrial controls.

    Industry compliance standards

    • ASTM B48: Contact Materials – Silver and Silver Alloy
    • FAA AC 25.1309-1 System Safety Analysis and Certification
    • IEC 61810-1 Electromechanical elementary relays
    • U.S. Defense Federal Acquisition Regulation Supplement (DFARS) – material sourcing

    Typical usage ratio

    • Applied as ultra-thin surface layers: typically 1–5 μm on silver-based contacts, not incorporated into bulk metal. Thickness adjusted by arc suppression requirements and device design.

    Downstream process integration

    • Physical vapor deposition or wet chemical deposition onto pre-machined metal contacts
    • Surface activation and oxide fixation before final switch assembly
    • Post-process aging/cycling in dedicated environmental chambers

    Final product types

    • Hermetically sealed relays for avionics
    • Mercury-wetted reed switches
    • Critical signal relays for process control
    • Low-spark electrical interlocks

    3. Chemical Catalysis for Acetylene and Chloralkali Processes

    Process chemical plants employ mercury oxide as a precursor to elemental mercury, used as a catalyst in certain non-ferrous acetylene production and traditional chloralkali cells. The oxide is thermally reduced within the plant just prior to use, ensuring purity and precise catalyst dosing. Repeated catalytic cycling and mercury recovery drive rigorous quality control and environmental safety measures.

    Industry compliance standards

    • OECD Guidelines for Testing of Chemicals No. 111 (Hydrolysis as a function of pH)
    • ISO 14001: Environmental management for chemical manufacturing
    • REACH Regulation (EC) No 1907/2006 (Registration, Evaluation, Authorisation and Restriction of Chemicals)
    • National emission standards for hazardous air pollutants (NESHAP), US EPA

    Typical usage ratio

    • Converted on-site from 100% oxide to 100% elemental, with addition rates based on catalyst bed size and process throughput; generally 300–800 g of elemental equivalent per tonne of acetylene or chlorine output, adjusted for plant scale and recovery efficiency.

    Downstream process integration

    • Delivered into reduction hoppers preceding catalyst activation chambers
    • Integrated as liquid or solid-phase catalyst in reactor trays
    • Mercury cycle maintained via on-line recovery and distillation systems

    Final product types

    • Polyvinyl chloride (PVC) resins via acetylene hydrochlorination
    • Chlorine and caustic soda from mercury cell chloralkali plants
    • Vinyl chloride monomer (VCM), precursor to engineering plastics

    4. Laboratory Analytical Reagents and Reference Standards

    Accredited analytical laboratories rely on high-purity mercury oxide as a solid standard or reactant in quality control, environmental monitoring, and academic research. It enables calibration of mercury-detection equipment and supports chemical synthesis or redox titration methodologies. Controlled packaging and batch traceability are essential to meet strict accreditation requirements.

    Industry compliance standards

    • ISO/IEC 17025:2017 Laboratory Testing and Calibration
    • ASTM D3223-12 for mercury in water
    • EPA Method 245.1: Mercury (Atomic Absorption, Cold Vapor Technique)
    • Good Laboratory Practice (GLP) OECD Principles

    Typical usage ratio

    • Used as a primary reference material or calibration stock: typical concentrations range from 0.01% up to pure standard for solution preparation, with bottle quantities precisely measured and certified for accuracy.

    Downstream process integration

    • Weighing and dissolution for analytical standards preparation
    • Direct use as a titration reactant
    • Incorporation in sample digestion workflows for atomic absorption or ICP analysis

    Final product types

    • Certified reference solutions (CRMs) for mercury determination
    • Water and soil mercury quality control samples
    • Academic research reagent kits
    • Commercially prepared analytical titration reagents
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    Competitive Mercury Oxide prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Mercury Oxide: Manufacturer’s Perspective on Quality, Application, and Responsibility

    Looking Closely at Mercury Oxide

    For over two decades, we’ve stood behind every batch of Mercury Oxide that leaves our plant. To outsiders, it might look like a simple orange-red or yellow powder. For us, Mercury Oxide is a commitment. Each lot passes through hands that know the difference between consistency and compromise, between shortcuts and safety. We produce both Red Mercury(II) Oxide and Yellow Mercury(II) Oxide. The two forms are not interchangeable, and the habits found in production and handling shape their performance and reputation in markets worldwide.

    Knowing the Product From Its Core

    Red Mercury Oxide (HgO), with its deep, brick-red tone, draws most users in specialty chemical and battery sectors. In our own lines, Red Mercury Oxide is available at 99.5% and above, by direct precipitation from mercury and controlled thermal decomposition. Different routes lead to variations in particle size and surface area, which changes how the oxide reacts and integrates in a process. Yellow Mercury Oxide, though less common, appears as a bright yellow powder and forms at lower temperatures. Its more reactive nature finds places in analytical chemistry and in some catalyst applications, where minute differences matter to a result.

    Quality is More Than Purity

    Purity sets the floor, but it’s the control over trace metals, water content, and particle character that separates one manufacturer from the next. For battery plate applications, surface area must fall within a narrow window. Too coarse, and performance drops; too fine, and handling becomes hazardous. Testing in our labs means more than running equipment. Each operator learns to smell slight sulfur contamination or sense subtle changes in flow, skills that take years to build but can make or break the reliability a customer expects. Quality control doesn't end at the drum—our job is to see clients through their own quality checks and help tailor the material if they shift processes.

    Beyond the Drum: End-Use Decisions

    Mercury Oxide earned a reputation in primary batteries, especially ‘button cells’ for watches and hearing devices. Our material forms the main depolarizer, regulating current and storage life. A smooth, controlled reaction between the oxide and zinc anode makes these batteries uniquely steady and long-lasting. In laboratories, chemists rely on its reactivity for precise oxygen liberations, stringent calibration, and detection of minute gas leaks in sophisticated systems. Where others might see a regulated substance, chemists and product engineers see a finely-tuned reagent with decades of proven chemistry behind it.

    Manufacturing Focus Versus Market Hype

    Each year, red and yellow Mercury Oxides appear across trade shows and online catalogs, offered at various grades and prices. As producers, we face a different reality than traders or resellers touting versatility and universality. A battery manufacturer will not tolerate a batch with elevated chlorides or organic residues—these ruin shelf life. Research users want purity, but also need good records, consistent supply, and technical answers from the source. Too often, we see product that has changed hands with only sparse paperwork, without any way to trace the real conditions behind its production. Our own output never ships without analysis by batch, documented origin, and production route.

    Responsible Sourcing and Safety Habits

    Handling mercury and its oxides is no minor business. Oversight begins at the point we source raw mercury—only suppliers whose methods and stewardship match our own standards remain partners. Each lot is checked not just for metal purity, but for environmental track record and compliance. In our own lines, workers share space with both process controls and safety routines. Respirators, isolated ventilation, and rigorous PPE are baseline. Spills and minor escapes, if they ever occur, are tracked and acted on immediately. In every step, the real investment goes into making sure the material reaches clients safely and that users know the right handling steps.

    Regulation and Best Practices: More Than Paperwork

    Mercury Oxide stands at the intersection of chemistry’s achievements and society’s expectations about responsibility. Over the years, the movement to limit mercury use has grown for good reason—improper disposal ruins water, poisons food chains, and harms workers. From a manufacturer’s perspective, we don’t see regulations as burdens, but as baseline expectations. Each lot ships in strict compliance with UN classification (UN 1641 for Mercury Oxide), REACH registration (for European customers), and U.S. TSCA tracking. Customers ask for advice on handling, and we walk them through secondary containment, air monitoring, and disposal guidelines based on the latest science—not just what some standard might suggest. In markets where substitutes don’t match Mercury Oxide’s properties, our duty is to guide users to the lowest risk, highest control pathways.

    Comparing Mercury Oxide With Other Oxidizers and Metal Oxides

    For the past fifty years, industries and labs have considered alternatives to Mercury Oxide, especially in battery and catalyst markets. Zinc oxide, manganese dioxide, and silver oxide all serve as oxidizing agents in some applications; each option comes with unique profiles and limitations. Zinc oxide is less toxic, yet doesn’t match the electrochemical stability or voltage characteristics required in miniature batteries. Manganese dioxide works well in general-purpose cells but falls short in shelf life or reliability under low loads. Silver oxide brings high energy density and low toxicity, but costs run far higher and supply is more volatile. Through all these comparisons, Mercury Oxide keeps its place where reliability, energy density, and finely-tuned reactivity matter most.

    Working With the Customer’s Needs—Not Just a Sale

    From our standpoint, every client brings unique concerns about sourcing and application. Large-scale battery firms want assurance on continuity. They need technical access to adapt to changing regulations or sudden design changes. Smaller clients, whether in academic, analytical, or specialty production fields, may order smaller quantities but demand rapid technical support. We believe it’s the job of the manufacturer to offer more than a one-time delivery: full documentation, handling protocols, transport planning, and advice on how changing purity or particle size affects yield or process safety. Repeat orders don’t come from sales pitches—they grow from performance, credibility, and trust earned through hard work.

    Practical Challenges in Mercury Oxide Manufacturing

    Real-world production never runs as smoothly as formulas suggest. The variables start with raw mercury. Variations in metal purity, hidden trace metals, and supply chain fluctuations force constant adjustment to production conditions. Red Mercury Oxide forms at elevated temperatures under controlled aeration; a few degrees too high, and you lose a batch to excessive sintering or altered color. Too much moisture, and storage stability drops. Yellow Mercury Oxide, meanwhile, forms at lower temperature but picks up atmospheric moisture if left unprotected, which undermines its suitability for high-precision tasks. We build in controls, redundancy, and duplicate analysis—nothing replaces experience in catching early signs of trouble.

    Environmental Impact: Leading With Action

    The world rightfully judges chemical producers on their environmental record, not just claims or certifications. Mercury and its compounds can devastate ecosystems if accidents or negligence occur. Our factory recycles mercury from retired products and industrial waste following strict, closed-loop practices to prevent loss. Effluent and air emissions run below local and international limits, with external auditors checking data regularly. Beyond compliance, we encourage clients to return unused or waste mercury oxide for reprocessing—not landfilling. We share best practices with downstream users, especially smaller operators, to help them meet their own environmental goals and avoid common pitfalls in waste streams.

    Innovation and Research: Moving the Needle

    Standing still does not fit the pace of modern chemical manufacturing. Over the past fifteen years, we dedicated significant resources to improving both process efficiency and safety. Automation and monitoring limit human exposure to dust and vapors, while real-time process controls catch deviation before product leaves the reactor. We collaborate with university partners and independent labs to test safer substitutes in established applications, and lead projects focused on recovery options—so less new mercury needs to be mined, and more comes back into the cycle from used devices. Our R&D efforts have led to improved product grades with lower trace contaminants and narrower particle distributions, a direct response to partner feedback and field observations.

    Supporting Education and Best Use

    We see poor practice as our responsibility, not just the user’s. Too often, generic online guides circulate with errors or outdated, unsafe recommendations. We run annual workshops for industrial and academic partners, bringing hands-on safety protocols, chemical handling, and waste minimization to the people working on the ground. This isn’t about reputation management—it’s about protecting real people from shortcuts and misinformation. Our material goes out with the clearest labels, digital safety data, and round-the-clock answers to urgent queries across borders and time zones.

    Looking Ahead: Mercury Oxide in a Changing World

    Restrictions on mercury use may tighten further, but practical alternatives for key uses remain limited. As large-scale battery production migrates to non-mercury systems, smaller and more technical applications still demand high-grade Mercury Oxide. We adapt by investing in greener production processes, higher recovery rates from old products, and continuous safety improvement. Users turn to us not because new regulation stalls growth, but because we give clear, actionable paths for continued safe and compliant use—and will keep innovating as long as there is a need.

    Red Mercury Oxide Versus Yellow Mercury Oxide: Practical Distinctions

    Customers often ask how the two forms differ in real-world applications. The red form, typically produced through dry thermal decomposition, provides greater stability and lower reactivity, fitting critical roles in batteries, pigments, and some specialty ceramics. The yellow form, made through wet chemical precipitation, excels in precision oxygen release in lab experiments and sometimes in catalyst manufacturing. Even trace differences in crystal habit or residual moisture impact the ease of blending or dosing in sensitive environments. Only by controlling these parameters during manufacture can problems downstream be prevented, whether caking, unexpected reactivity, or failure to meet analytical standards. We don’t pick one form for all customers; we match the grade and type to the real requirements of the process.

    Supply Integrity: Cutting Through Uncertainty

    In times of geopolitical or supply chain shocks, murky sourcing becomes clear risk. We field questions from customers who found themselves with mismarked or diluted product—sometimes as a result of corner-cutting resellers or poorly traced recycling. Our certificate of analysis is not a marketing add-on. It serves as a real contract with our customer, promising performance that can be verified in their own labs. If a shipment falls short, we track every step back to the origin and correct it. True manufacturing integrity shows not in glossy marketing, but in the long-term relationships and consistent supply we provide, no matter the circumstances.

    Health and Safety: Operator Wisdom Over Automation

    Every kilogram of Mercury Oxide handled safely owes as much to our operator training as to technology. Production lines can feature every control measure, but day-to-day habits create lasting safety. Workers trained to spot a leak, contain a powder escape, or recognize early signs of fatigue in equipment become the backbone of incident prevention. We invest in regular medical screening, exposure monitoring, and job rotation—protecting skilled staff and building a culture where no process or deadline comes ahead of health. The work is hard and high-stakes, but turnover stays low because the value of people matches the value placed on quality and compliance.

    Addressing the Big Risks: Transparency and Ownership

    For those who use Mercury Oxide, public perception and regulatory scrutiny can create uncertainty. Product recalls, environmental claims, and health scares make headlines fast. From our perspective, transparency is the best answer. Customers see our process flows, audit reports, and real accident data. When incidents anywhere in the supply chain occur, we communicate honestly and focus on solutions. This approach has earned trust among even the most cautious buyers. Their feedback becomes part of our improvement loop—refining procedures, tweaking product grades, and continuously raising the bar.

    The Place of Experience in Modern Industry

    Knowledge in mercury chemistry accumulates through hard-won lessons: the failed batches, near-misses, and recovered setbacks. Our managers, technicians, and operators bring together over a hundred years of combined experience in what works, what fails, and which shortcuts carry hidden risks. This knowledge cannot be replaced by simple online research or paper specs. Our competitors may mirror data points, but the differences show up where the stakes grow—long-term battery stability, trace contaminant levels in major analytical labs, and custom specs for specialty glass. Customers choose us because we carry the weight of all this history, and we make it available to every buyer, not just the largest accounts.

    In Summary: Our Role in the Market

    As the original manufacturer with decades invested in doing the job right, we don’t see Mercury Oxide as just another commodity. Our approach covers the science, the history, and the real-world impacts. Each package stands as proof of our commitment—to chemistry, to people, and to the planet. Through ongoing dialogue with our customers and partners, we keep raising standards for quality, safety, and transparency. For any application where Mercury Oxide remains essential, we bring not just product, but the experience and responsibility that distinguishes a true manufacturer from everyone else in the field.