Yudu County, Ganzhou, Jiangxi, China sales3@liwei-chem.com 748718781@qq.com
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Lead Oxide

    • Product Name Lead Oxide
    • Chemical Name (IUPAC) Lead(II) oxide
    • CAS No. 1317-36-8
    • Chemical Formula PbO
    • Form/Physical State Powder/Solid
    • Factory Site Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry sales3@liwei-chem.com
    • Manufacturer Anhui Liwei Chemical Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    871349

    Chemical Formula PbO
    Molar Mass 223.2 g/mol
    Appearance Yellow or red powder
    Melting Point 888 °C
    Boiling Point 1472 °C
    Density 9.53 g/cm³
    Solubility In Water Insoluble
    Cas Number 1317-36-8
    Oxidation State +2
    Hazard Classification Toxic
    Refractive Index 2.6–2.7
    Crystal Structure Orthorhombic (α), Tetragonal (β)
    Autoflammability Non-flammable

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

    Packing & Storage
    Packing Lead Oxide is packaged in a 25 kg tightly sealed, high-density polyethylene bag with hazard labels and moisture-resistant, durable construction.
    Container Loading (20′ FCL) 20′ FCL for Lead Oxide typically holds about 20-22 metric tons, packed in secure bags or drums to prevent contamination and leakage.
    Shipping Lead Oxide should be shipped in tightly sealed containers, clearly labeled with hazard information. It must be protected from moisture and stored away from incompatible materials. Transport in compliance with local, national, and international regulations, using appropriate hazard classifications to ensure safe handling and to prevent environmental contamination or human exposure.
    Storage Lead Oxide should be stored in tightly closed containers in a cool, dry, and well-ventilated area, away from incompatible substances such as strong acids, reducing agents, or combustibles. Storage areas must be labeled, secure, and designed to prevent environmental contamination. Use corrosion-resistant materials for containers, and avoid exposure to moisture or direct sunlight to maintain chemical stability and safety.
    Shelf Life Lead Oxide typically has an indefinite shelf life if stored in tightly sealed containers, away from moisture, heat, and incompatible substances.
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    Competitive Lead Oxide prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615365186327 or mail to sales3@liwei-chem.com.

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    Tel: +8615365186327

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    Certification & Compliance
    More Introduction

    Lead Oxide: A Closer Look at Its Role and Value in Manufacturing

    Understanding the Integral Role of Lead Oxide

    Our production lines have run with lead oxide for decades. Watching truckloads of our product leave the plant gives us good reason to reflect on its real-world significance. We see every batch as an essential ingredient in batteries, ceramics, glass, and other advanced processes that power daily life and industry alike.

    Lead oxide, as we produce it, comes primarily in two forms: red lead (Pb3O4) and lead monoxide (PbO). Each type serves its own sector, shaped by the expectations of engineers and manufacturers. In the battery world, lead monoxide takes priority. Our lines process this material for those who build lead-acid batteries, helping ensure stable, reliable grids and vehicle systems. Red lead, with its distinct orange-red shade and higher oxygen content, meets the needs of glassmakers, glaze developers, and ceramicists aiming for durability, resistance, and color brilliance. Each day, we focus on purity, particle size, and batch consistency, knowing that even modest shifts can ripple through a customer’s process.

    Key Models and Specifications from Our Plant Floor

    Our team works with two base models: litharge (yellow lead monoxide, alpha-PbO) and massicot (red or orange lead monoxide, beta-PbO). Each offers its benefits. Litharge’s stable structure, preferred for battery plate paste and stabilizers, gives cell manufacturers solid ground. Massicot, with slightly different properties, heads into ceramics and glass, supporting brilliant finishes and robust performance.

    Specifications here don’t spring from a template. We shape metrics to customer needs. Particle size distribution, purity levels, and crystalline phases result from deliberate, monitored production routines. The purity for battery-grade lead monoxide typically runs above 99.5%. Our quality checks focus on minimizing trace metals, as these affect battery capacity and cycle life. In the ceramics world, customers look for control over grain size and the formation of specific crystal structures—vital for getting the right look and durability in end products.

    Moisture content stays low for every delivery, usually below 0.3%. We achieve this by careful drying and packaging in high-grade, sealed bags. This reliable process prevents clumping and free-flowing powder is the result. As a manufacturer, we witness firsthand how improper handling of moisture impacts storage and blending, so every bag gets handled with extra care.

    Real-World Use Cases and the Value Built In

    The workhorse reputation of lead oxide stretches far past technical handbooks. Every day, battery manufacturers depend on it for their core plates. We’ve collaborated with teams looking to optimize energy density or boost cold cranking amps. Shifts in crystalline structure or purity could force entire battery production lines to a halt. Our experienced operators adjust furnace temperatures and oxidation rates to deliver a batch profile that works—for both mass production and specialty cells.

    Smelters and recyclers come to us for lead oxide as part of their recovery process. Lead recycling operations often send us questions about the impact of trace impurities on subsequent refining. Our technical team walks them through the data and, where needed, works alongside them to design tailored batches suited for secondary smelting. Those insights only come from repeated field response and a willingness by operators to tweak and test until the ideal balance is met.

    Ceramics and glass producers seek different properties. Their focus turns to color, opacity, and melt behavior under high heat. Artists and industrial glaze formulators alike have strong opinions about the difference between a fine red lead versus a coarser batch, how it disperses, and how it reacts at peak kiln temperatures. Our lab instruments clock these differences, but it’s really the customer’s feedback that closes the loop. Time in the lab does not outweigh lessons from a customer’s firing run.

    Lead Oxide Versus Other Options: Insights from the Floor

    Some of our competitors in the ceramic and glass world rely on other metal oxides, such as zinc or tin compounds. These alternatives deliver different color results or electrical properties, but they don’t quite match the durability and color depth a lead-based batch guarantees. Glass stability, refractive index, and resistance to corrosion bear out the benefits seen in decades of real production.

    In the battery market, lead-acid technology rarely surrenders ground to other chemistries in terms of affordability or recyclability. While lithium and nickel-based batteries grab more headlines, the lead-acid cell persists in backup power, starting, lighting, and ignition (SLI) applications for good reason. Lead oxide lays the foundation for that reliability. Our production team often faces questions over why not swap to a “green” solution. The answer: cost, local availability of recycling infrastructure, and a deeply proven safety and performance record.

    Trying to substitute with ferric oxides or other lead compounds usually leads to efficiency losses and lifecycle tradeoffs. In our experience, even marginal formulation changes show up as battery failures or kiln defects. The best way forward has been iterative improvement of the lead oxide process itself—driving out contaminants, fine-tuning particle sizing, and seeking better packaging practices.

    Production Process and Quality Anchors

    We rely on the Barton pot method and ball mill approach to produce large and small batches. The Barton pot enables real-time temperature and air flow adjustments, crucial for consistent conversion of pure lead into a homogenous oxide. Internal sensors and regular sampling by our techs help us keep each run within tight parameters.

    The ball mill alternative produces a denser batch, targeted to applications where granularity and surface area become important. Over the years, our team refined the feedstock loading process, and regular maintenance cuts down on cross-contamination between runs.

    Operators on our line know that visual inspections sometimes spot issues that machines miss. Color checks, smell, and flow behavior act as real quality guards along with our formal lab results. Feedback from clients has pushed us to redesign storage silos and install better dust control, reducing workplace risk and improving delivery reliability.

    Challenges in Manufacturing and the Way Forward

    The biggest hurdles we tackle in the plant revolve around environmental compliance and safety. Lead oxide requires care at every touchpoint—raw lead unloading, furnace operations, packaging, and transportation. Our workforce wears personal protective equipment and works with continuous air monitoring. Regular blood lead level tests form a critical plug in our safety regimen.

    Shifting environmental regulations change our operating landscape. We track permissible exposure limits and collaborate with environmental engineers to upgrade our abatement equipment. There’s no skipping these steps. When environmental audits come up, we open doors without hesitation. Transparency and documentation shape our approach as much as our production techniques.

    Waste stream management also matters. Dust collection, bag filter systems, and responsible recycling of byproducts go hand in hand with our production goals. We’ve retooled ventilation systems and invested in modern dust scrubbers, sharply cutting particulate emissions from stack outlets.

    Storage and transport introduce their own risks. We avoid bulk handling in open air. Instead, heavy-gauge polyethylene liners and tightly sealed containers are standard for both in-plant movement and customer delivery. We’ve faced enough container breaches and wet shipments to write off risky shortcuts forever.

    End Use and Market Feedback: Direct Lessons

    Years in this market have taught us that listening counts. Customer engineers call with granular questions about sintering temperatures, reaction times, or whether a different batch can accommodate line shutdowns. Experienced staff help solve these puzzles through on-the-ground knowledge, not just lab reports.

    For example, paint and pigment firms lean on us for red lead specifically tailored for anti-corrosion primers and rustproofing. Performance in salt spray tests links directly with the purity and crystal size of incoming product. Miss the target, and the final coating cracks or discolors.

    We routinely ship technical support staff to customer plants to see how our batches perform in their actual process. This “boots on the ground” approach led us to change crystal habit in one line of red lead, after a glass processor reported haze problems under UV stress. By reworking furnace temperature curves, the next batch cleared industry performance standards.

    Safety, Handling, and Operator Experience

    Lead oxide’s track record as an industrial staple is built on careful, practiced handling. New operators receive hands-on training with managers who’ve watched the plant evolve for years. Basics of good practice—closed-system transfers, local exhaust ventilation, and dry housekeeping—become habits, not just box-ticking exercises.

    Many of our best improvements come from operators themselves. Innovations like automated bagging, safer pallet stacking techniques, and strict use of airtight connectors all emerged from the ground up. We prioritize everyday safety, well beyond written policies.

    Transport drivers also play a heavy role in keeping shipments clean and intact. Regular talks and ongoing training help maintain vigilance in loading and unloading, along with proper use of masks and gloves. Long-term, our retention of experienced drivers and operators means mistakes are minimized.

    Environmental Responsibility and Industry Shifts

    As a chemical manufacturer, we face pressure from both government oversight and rising customer expectations. We view this scrutiny as an opportunity for leadership. Upgrades to process ventilation, zero-discharge water loops, and expanded environmental testing reflect both market demand and our own belief in responsible production.

    We meet with regional authorities to review emissions data and share improvement plans. Every emission stack features real-time monitoring, and corrective action happens with urgency. We set realistic benchmarks and regularly adjust production protocols, aiming for the best sustainability outcomes we can achieve with current technology.

    Recycling remains a major focus. A significant percentage of the lead entering our plant arrives from post-consumer battery recovery. This circular approach cuts the need for virgin mining and is reshaping the industry. By listening to recyclers and loosely coordinating with smelters, we’ve trimmed waste volumes and improved the overall life cycle of lead products.

    Quality Control and Future Innovation

    Quality management stands at the center of our success. Inline testing, regular instrument calibration, and lot traceability match up with hands-on batch sampling. Operators know that production spikes or drops in temperature and pressure require immediate intervention, not just computer flagging.

    We operate on a continuous improvement model. Technical teams blend field feedback with research to optimize both existing processes and potential new forms of lead oxide. Automated process control, predictive maintenance, and new dust collection technology are now regular parts of our plant’s daily routine.

    In glass and ceramic development, demands shift towards higher-performance and specialty applications. Our response has been greater flexibility and targeted support—offering small-batch specialty runs for research and collaborating with clients on novel material design. Sometimes that brings new process challenges, but persistent communication generally results in a better product all around.

    Supporting the Broader Community and Worker Health

    Our approach goes beyond product excellence. Local investment in community education initiatives around safe handling and environmental stewardship builds long-term trust in areas where we operate. We partner with medical professionals on health monitoring and provide detailed safety briefings to everyone entering the plant.

    Support networks for affected workers and their families add another layer of responsibility. We run health clinics, lead exposure awareness sessions, and regular feedback opportunities for every worker. Sharing our experiences at industry events provides a chance for broader change, and often those conversations expose problems before they grow.

    We invite regulatory inspectors and third-party auditors for unannounced checks. These partnerships help us spot blind spots in our routines and keep us honest about performance and compliance.

    The Road Ahead: Challenges and Solutions

    Rising raw material costs present an ongoing test. We counter this through process efficiency, streamlined maintenance, and waste reduction programs. Close ties with suppliers keep us better prepared when market disruptions strike.

    Adapting to a shifting regulatory environment brings new equipment needs and compliance routines. We respond by updating systems in regular cycles, favoring upgrades that offer both safety and efficiency gains. Staff receive ongoing cross-training, giving us a flexible, well-equipped team.

    Exploring substitutes or additives that modify lead oxide’s risk profile without impacting product performance remains on our R&D agenda. Still, for battery, ceramic, and glass clients, nothing quite matches the balance of our well-tuned offering. We continue to monitor market shifts, technological advances, and evolving customer needs with open eyes and a willingness to invest.

    We believe that honest communication between manufacturers, customers, regulators, and communities will strengthen both market resilience and public trust. Future challenges will require nimble problem-solving and steady attention to quality, safety, and sustainability.

    Summing Up: Proven Experience, Real Responsibility

    Through decades of refining our lead oxide process, we’ve watched this product adapt and endure. Every shipment speaks to lessons learned on the plant floor. Our goal is to deliver measurable value, strong performance, and responsible stewardship at each link in the supply chain. The world relies every day on the quality and reliability we provide—responsibility we take seriously with every batch.