|
HS Code |
315802 |
| Chemical Name | Lithium Carbonate |
| Chemical Formula | Li2CO3 |
| Molar Mass | 73.89 g/mol |
| Appearance | White, odorless powder |
| Melting Point | 723 °C |
| Solubility In Water | 1.3 g/L (20 °C) |
| Density | 2.11 g/cm³ |
| Cas Number | 554-13-2 |
| Boiling Point | Decomposes |
| Ph | 11.3 (1% solution) |
| Hazard Statements | H302 (Harmful if swallowed) |
| Uses | Mood stabilizer, glass and ceramics, batteries |
| Stability | Stable under recommended storage conditions |
As an accredited Lithium Carbonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, sturdy HDPE plastic drum labeled "Lithium Carbonate, 25 kg," features a tamper-proof seal, hazard symbols, and batch information. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Lithium Carbonate: Typically loaded with 22-25 metric tons, packed in 25/50kg bags or jumbo bags, palletized for transport. |
| Shipping | Lithium Carbonate is shipped as a hazardous material, typically in tightly sealed, moisture-resistant containers such as drums or bags. It must be clearly labeled according to applicable transport regulations (e.g., UN 3077, Class 9). During transit, it should be protected from moisture, heat, and incompatible substances to ensure safety and stability. |
| Storage | Lithium carbonate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible substances such as acids. It should be kept away from moisture and direct sunlight. Proper labelling and secure storage are essential to prevent spills or accidental exposure. Personal protective equipment should be available when handling the chemical. |
| Shelf Life | Lithium carbonate typically has a shelf life of 3 to 5 years when stored in a cool, dry, tightly sealed container. |
|
Purity 99%: Lithium Carbonate with 99% purity is used in battery cathode material production, where it ensures high energy density and stable cell performance. Particle Size 10 µm: Lithium Carbonate with 10 µm particle size is used in ceramics manufacturing, where it promotes uniform glaze formation and reduced defect rates. Melting Point 723°C: Lithium Carbonate with a melting point of 723°C is used in glass formulations, where it lowers the melting temperature for improved processing efficiency. Low Moisture Content: Lithium Carbonate with low moisture content is used in pharmaceutical synthesis, where it enhances product stability and shelf life. High Thermal Stability: Lithium Carbonate exhibiting high thermal stability is used in aluminum smelting, where it increases electrolyte efficiency and reduces energy consumption. Micronized Grade: Lithium Carbonate in micronized grade is used in lubricating greases, where it improves thickening efficiency and consistency. Battery Grade Specification: Lithium Carbonate meeting battery grade specification is used in rechargeable lithium-ion battery production, where it provides high purity and optimal electrochemical performance. Controlled Sodium Content: Lithium Carbonate with controlled sodium content is used in advanced glass applications, where it minimizes contamination and enhances optical clarity. Pharmaceutical Grade: Lithium Carbonate of pharmaceutical grade is used in mood disorder medication, where it ensures precise dosage and therapeutic consistency. Granular Form: Lithium Carbonate in granular form is used in continuous casting powder, where it enhances flow properties and promotes uniform mold coverage. |
Competitive Lithium Carbonate prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@liwei-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@liwei-chem.com
Flexible payment, competitive price, premium service - Inquire now!
After decades in the chemical manufacturing business, it’s easy to spot when a product quietly leads to big shifts in tech and industry. Lithium carbonate, with the formula Li2CO3, shows up in more industries each year. From battery production to glass and pharmaceuticals, our lithium carbonate finds its way into daily technologies and health. We work closely with refining, quality control, and logistics, so we have seen what works and what falls short of end-user needs. This perspective is personal. We take serious responsibility because impurities, fine particle size, or small deviations from target specs can disrupt entire production lines for our clients.
We produce several grades, each developed through experience with end-user feedback, not one-size-fits-all marketing. Our standard battery-grade lithium carbonate, for instance, contains less than 100 ppm combined alkali metal impurities and typically tests near 99.5% purity on a dry basis. For technical-grade applications, where strict standards for trace elements matter less, we relax specs and lower the price. Our pharmaceutical-grade line goes well beyond general specifications—here, safety, consistency, and traceability for each batch drive all process decisions. These distinctions only exist thanks to our technical teams, who run strict in-house testing before bulk shipments leave our facilities.
Years ago, only the battery industry made headlines for lithium carbonate procurement. Today, lithium-ion batteries drive demand spikes globally, and we directly support cell manufacturers, automotive, and energy storage system producers. They have presented us with clear requirements: ultra-low iron content, minimal sodium and potassium, and moisture levels controlled to avoid any process-related inefficiencies—especially during cathode precursor synthesis. Delivering on these expectations took investment in not just equipment but ongoing staff training and adopting real-time analysis methods. We've gone beyond basic checklists and now support traceability from raw mining, through purification, drying, and packaging, so no stage of production is left to chance.
Our experience shows that manufacturers can solve conductivity and degradation issues with the right grade of lithium carbonate. Some cell producers complained about short cycle life or unpredictable behavior during early prototyping. On-site collaboration revealed that even trace levels of metallic elements such as iron or copper, or uncontrolled moisture, caused downstream failures and unnecessary waste. In response, we adapted our crystallization and drying processes, installed inline spectroscopic monitors, and now track every lot by digital batch history, accessible to end customers on request. These steps didn't just help our partners meet their performance targets—they protected reputations and improved industry-wide reliability.
Lithium carbonate’s influence extends far past batteries. Glass manufacturers, for example, rely on our technical-grade product to reduce melting temperature and enhance product durability. Over the years, our customers in architectural and specialty glass have faced tough energy efficiency standards and needed consistent results every time. Lithium’s role in reducing viscosity and improving thermal expansion control isn’t just academic; it directly cuts production costs and boosts finished-product qualities. Our technical team works hands-on with glassworks and kilns, adjusting calcium and magnesium impurities by fine-tuning precipitation and filtration in our own plants, not through blended or reprocessed trade stock.
Ceramics producers trust our lithium carbonate because tiny variations influence glaze, color, and mechanical strength. During one case, a client reported color variation in a signature tile line, traced to a competitor’s inconsistent grades. Our staff visited the production floor, reviewed firing curves, and provided a custom batch with controlled sodium and iron. Results matched their reference samples—demonstrating that quality comes directly from manufacturing rigor, not just a spec sheet or external certifications.
Pharmaceutical-grade lithium carbonate supports therapies for bipolar disorder and other neuropsychiatric conditions. Hospitals and drug companies cannot accept any variability, so we operate under Good Manufacturing Practice standards verified by third-party inspections. Out of everything we make, pharmaceutical lithium carbonate undergoes the most comprehensive testing. Every container ships with batch-specific certificates, certified residual solvent levels, and documented provenance down to the mine of origin.
We also maintain a dedicated pharmaceutical production suite, equipped to prevent cross-contamination and maintain traceability through electronic batch records. Over time, regulatory agencies have tightened standards on heavy metals, microbial content, and even labeling practices. Because of direct conversations with clinicians and pharmacists, we ensure safety and reliability by focusing our investments on analytical equipment, training, and cleanroom processes—not on cutting corners to reach lower price points.
Years spent listening to users taught us consistency is not just about high purity numbers. It’s about stability through global supply disruptions, transparent document trails, technical advice for every delivery, and real accountability. Traders and distributors rarely appreciate how a small unexpected impurity can trigger months of re-qualification or even recall cycles downstream. As the manufacturer, we track all raw inputs, adjust every process based on incoming ore properties, and suspend production if material doesn’t meet target parameters—no exceptions, even if it means delaying shipments or running extra purification cycles.
Compared to generic market supplies, our products ship with comprehensive analytical data for every lot—ICP-MS scans for alkali and transition metals, particle size distribution, moisture, and carbonate content. This level of reporting wasn’t born from ISO paperwork. It came after too many rounds of problem-solving with partners whose projects stalled due to inconsistent raw materials elsewhere. Often, competitors blend recycled or reclaimed streams, which can bring in trace contaminants without clear documentation. We do not blend between product lines once a material is qualified for battery, technical, or pharmaceutical uses. Each grade runs through physically segregated lines to prevent mix-ups, with clear batch records stretching back to mine extraction dates.
The biggest challenges haven’t just come from market cycles or supply chain disruptions, but from the push for higher performance and compliance with stricter standards. Many years back, chloride content and moisture weren’t headline specification items; now, leading battery makers demand parts-per-million level tightness. Meeting those calls wasn’t easy. We had to rebuild parts of our drying plant, upgrade from legacy analytical balances to high-throughput spectrometers, and retrain staff on trace contamination protocols. Experience taught us shortcuts never pay off. Even with supply shortages, we maintain sample retention for every customer delivery. If a partner calls six months after receiving a lot and raises an issue, we have backup samples and full analysis records ready to cross-check for root cause analysis.
Feedback from customers shapes our product decisions. We do not develop grades in a vacuum or chase novelty for its own sake. When electric vehicle manufacturers looked to cut cycle test times and cut scrap losses, we worked side-by-side with their chemists and process engineers, setting up shared pilot runs on site. In the past, a ceramics manufacturer faced unwanted haze and inconsistent tactile finish due to using lower-cost lithium carbonate. They brought their samples straight to our lab for joint investigation. Our team identified and eliminated trace magnesium content as the root cause, and adjusted precipitation protocols accordingly—something only direct manufacturing experience and hands-on collaboration can deliver.
Growing awareness about responsible sourcing and environmental sustainability has changed how we run the business. Large clients audit supply chains now, not just finished goods. We provide full material origin documentation and partner with brine and mineral sources that follow high standards in water management, waste treatment, and labor safety. Our process innovations focus on reclaiming water, minimizing reagents, and reducing emissions without affecting product purity. None of these steps come from regulation alone—they reflect the expectations and feedback of partners who prize not just product quality, but its ethical background.
We have implemented closed-loop water systems in our refining stages, significantly cutting new water intake and reducing discharge. Our waste streams from carbonate precipitation pass through advanced neutralization and solids removal, monitored by continuous online sensors. Auditors sent by customers have toured our plants, inspecting our ore sourcing and witnessing our environmental control rooms firsthand. These visits serve as both accountability and as opportunities for honest feedback—direct questions get direct answers, something that only the actual manufacturing team can guarantee.
Technical teams and management review process data regularly, meeting with customers and research partners to plan ahead. New developments in solid-state battery chemistries may reshape lithium carbonate specs in coming years. Our technical experts follow academic research and work with research institutions to trial pilot batches when customers explore new formulations. The experience of being the manufacturer means we carry responsibility for every shipment, but it also gives us early insight into shifts in standards or novel applications. We collaborate with end-users, universities, and industrial consortia to support development and testing of next-generation lithium materials.
While we invest in R&D, we don’t lose sight of supporting established industries. Whether a ceramics plant needs a tighter screen cut or a pharmaceutical customer faces new regulatory changes, we stand ready to adapt—not just react. We constantly evaluate mining partners, refine purification flowsheets, and validate analytical methods so our customers gain reliability as supply chain expectations and technical specs evolve.
Many companies in the market pull material from multiple origins, batch-blend to meet average specs, or rely on third-party intermediaries for distribution and troubleshooting. Our model centers on direct production and delivery, with full technical support and root cause investigation when problems arise. Our on-site analytical team examines every outgoing shipment, generating detailed reports so customers have no surprises during incoming inspection.
We carry unique knowledge of source topology, ore characteristics, and process idiosyncrasies because we control every production stage ourselves. By adjusting for lot-to-lot variation at each step, we respond to changing raw material quality and evolving end-user requirements much faster than trading-oriented businesses, who may only realize there’s a problem after the fact. This proactive, engaged approach comes directly from being the company at every stage from feedstock to final shipment. Over the years, partners have told us this technical engagement saves time and prevents costly disruptions. It clears up ambiguity, enables faster new product ramp-ups, and simplifies regulatory inspection—all because we stand behind every ton, not just through paperwork but technical staff, real analysis, and shared problem-solving.
For researchers working on novel battery cathodes, engineers driving toward thin film advances, or health professionals managing critical therapies, it’s not enough to source just any lithium carbonate—as the manufacturer, we see how each application brings its own priorities and challenges. We share user expectations and take on the responsibility for both current and emerging demands. Our company produces every batch with full knowledge that mistakes or shortcuts can halt production lines, trigger recalls, or endanger patients. Our goal has always been to match rigorous technical standards, offer transparency every step of the way, and remain directly accountable to every user—from R&D startups to the world’s largest manufacturers. Tackling problems head-on and working together for reliable supply is our everyday practice, drawn from decades in the field and a commitment to continuous improvement.