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Lithium Lactate

    • Product Name Lithium Lactate
    • Alias lactic acid lithium salt
    • Einecs 242-383-0
    • 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
    VTB
    Specifications

    HS Code

    638238

    Product Name Lithium Lactate
    Chemical Formula C3H5LiO3
    Molecular Weight 96.01 g/mol
    Appearance White crystalline powder
    Solubility In Water Soluble
    Melting Point Decomposes before melting
    Cas Number 867-13-0
    Storage Conditions Store in a tightly closed container, in a cool, dry place
    Ph Approximately 7 (1% solution in water)
    Odor Odorless

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

    Packing & Storage
    Packing Amber glass bottle containing 100 grams of Lithium Lactate powder, labeled with hazard warnings, product details, lot number, and storage instructions.
    Shipping **Lithium Lactate** should be shipped in tightly sealed containers made of compatible materials, protected from moisture and heat. It is not classified as hazardous for transport but should be labeled properly. Store and ship in a cool, dry place, following all applicable local, national, and international regulations for chemical transportation.
    Storage Lithium lactate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong acids and oxidizing agents. It should be protected from moisture and direct sunlight. Appropriate safety labeling and containment to prevent spills or contamination are recommended. Always follow local regulations and consult the Safety Data Sheet (SDS) for detailed storage guidelines.
    Application of Lithium Lactate

    Applications of Lithium Lactate in Industrial Manufacturing

    As a vertically integrated manufacturer, we provide high-purity lithium lactate tailored for core downstream sectors. Our products demonstrate consistent performance and traceability in regulated industries, supporting diverse applications that demand reliability, precision dosing, and compliance with stringent standards. The following industrial scenarios highlight genuine, end-use deployment with practical process parameters.

    1. Pharmaceutical Solution Stabilizers

    Lithium lactate acts as a stabilizing agent and buffer in injectable solutions, oral formulations, and diagnostic reagents. Its role centers on pH regulation and lithium ion supplementation, primarily in psychiatric and neurological pharmaceutical development. Strict polymerization control during compounding prevents reagent degradation, contributing to batch consistency as required by global pharmacopoeias. Ongoing quality control ensures residual solvents and metal impurities remain below pharmacopeial thresholds, with dosing carefully calculated according to the final route of administration and clinical requirements.

    Industry compliance standards

    • USP-NF Monographs (United States Pharmacopeia–National Formulary)
    • Ph. Eur. (European Pharmacopoeia)
    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • FDA 21 CFR Part 210/211 (GMPs for Finished Pharmaceuticals)

    Typical usage ratio

    • 0.2%–1% w/v in injectable or oral solutions, adjusted based on required lithium ion concentration; final dosage determined by product labeling and active pharmaceutical ingredient formulation.

    Downstream process integration

    • Dissolved in sterile water at controlled temperature during compounding; pH adjusted prior to filtration or sterilization; combined with other excipients before vial filling or tablet granulation.

    Final product types

    • Liquid psychiatric medication vials
    • Buffered oral solutions
    • Diagnostic reagent kits
    • Specialty electrolyte supplements for clinical use

    2. Food Additive in Mineral Fortification

    In functional nutrition, lithium lactate provides lithium as a trace element for dietary supplements and mineral-fortified beverages. Food technologists value its solubility and minimal aftertaste, which support clear beverage formulations and homogenous powder blends. Regulatory monitoring assures levels comply with national food safety legislation, and labeling reflects the presence of lithium according to market-specific supplement laws, with routine batch testing to confirm trace mineral content and absence of toxic impurities.

    Industry compliance standards

    • GB 2760 (China National Food Safety Standards: Food Additive Usage)
    • 21 CFR 172 (Food Additives Permitted for Direct Addition to Food for Human Consumption)
    • EU Regulation (EC) No 1333/2008 (Food Additives Regulation)
    • ISO 22000 (Food Safety Management Systems)

    Typical usage ratio

    • 0.05–0.2% by weight in mineral supplement tablets and 0.01–0.05% in clear beverages, refined based on national regulatory limits and target nutritional fortification.

    Downstream process integration

    • Dispensed into blending tanks with other water-soluble mineral salts; incorporated during beverage premix preparation or tablet/powder dry mixing; solution filtered before bottling or tablet compression.

    Final product types

    • Mineral water marketed with trace lithium
    • Fortified powdered supplements
    • Effervescent nutritional tablets
    • Ready-to-drink mineral-enriched beverages

    3. Electrolyte Component in Battery Electrolyte Formulations

    Lithium lactate finds industrial use as a conductive additive in specialized electrolyte solutions for lithium-ion battery R&D, particularly for experimental aqueous electrolyte systems and novel solid-state designs. Manufacturers incorporate it to optimize ion transport, reduce gas generation, and improve safety. Strict analytical controls ensure batch-to-batch ionic purity, as contaminants adversely affect battery cycle life. Engineers must fine-tune the addition alongside other lithium salts, monitoring performance through cycle tests and safety evaluations in prototype cells.

    Industry compliance standards

    • IEC 62660-2 (Secondary Lithium-Ion Cells for the Propulsion of Electric Road Vehicles - Reliability and Abuse Testing)
    • UN Manual of Tests and Criteria, Part III (Lithium Battery Testing)
    • ISO 9001 (Quality Management Systems)
    • GB/T 31485-2015 (Safety Requirements for Lithium-ion Battery Packs and Systems for Electric Vehicles - China)

    Typical usage ratio

    • 0.1–0.5 mol/L in aqueous or hybrid electrolyte mixtures, often as part of total lithium content targeting 1 mol/L; dosage adjusted for cell type and design goals.

    Downstream process integration

    • Weighed and dissolved with other conductive salts in electrolyte blending vessels under inert atmosphere; mixture filtered and transferred to cell assembly lines under dry-room conditions; dosage tailored via pre-production pilot runs.

    Final product types

    • Prototype lithium-ion battery cells
    • Experimental aqueous-based battery modules
    • Solid-state test cells for research labs
    • Custom power cells for academic trials

    4. Catalyst and Additive in Polymer Synthesis

    Chemical companies employ lithium lactate as a reaction catalyst and pH modifier in selected polyester and specialty polymerization processes. Its dual role—supplying lithium ions and acting as a buffering agent—facilitates monomer conversion and chain termination with consistent reproducibility. Compliance efforts focus on monitoring heavy metals, residual solvents, and by-product formation per end-market polymer regulations, while quality teams evaluate each batch via chromatography to verify process compatibility and product safety standards before shipment.

    Industry compliance standards

    • REACH (EC No 1907/2006: Registration, Evaluation, Authorisation and Restriction of Chemicals)
    • FDA 21 CFR 177.1520 (Olefin Polymers Contacting Food)
    • ISO 9001 (Quality Management Systems in Chemical Manufacturing)
    • EN 71-3 (European Toy Safety Standard for Polymer Additives)

    Typical usage ratio

    • 0.05–0.3% by weight of total monomer mass, adjusted based on desired molecular weight and target end-use safety compliance.

    Downstream process integration

    • Blended with monomer feed and initiators in batch reactors; pH adjusted prior to polymerization run; process temperature and residence time controlled to maximize catalytic performance; on-line monitoring throughout reaction.

    Final product types

    • Biodegradable polyester granules
    • High-performance engineering plastics
    • Food-contact polymer films
    • Child-safe molded polymer components

    5. Buffering Agent in Biotechnological Fermentation

    Bioprocess engineers use lithium lactate as a dedicated buffer in microbial fermentation media for selective strain development or recombinant protein expression. By maintaining stable pH and providing supplemental lithium, the additive aids in optimizing conditions for genetically modified organisms. Recipe formulation and trace element analysis play a central role in routine process control, always documented in accordance with pharmaceutical or biotechnology cGMP guidelines and market-specific biological safety requirements.

    Industry compliance standards

    • ICH Q9 (Quality Risk Management)
    • WHO TRS 999 Annex 2 (GMP for Biological Products)
    • EU Guidelines for Good Manufacturing Practices for Medicinal Products for Human and Veterinary Use, Annex 2
    • ISO 13485 (Quality Management Systems for Medical Devices, applicable for diagnostic proteins)

    Typical usage ratio

    • 0.1–0.4% in culture media, tailored based on required pH stability and lithium concentration effects on microbial growth and product expression yield.

    Downstream process integration

    • Added to basal culture media prior to sterilization and inoculation; batch records detail component lot traceability and solubility checks; in-process monitoring of fermentation pH and product titers guides further process adjustments.

    Final product types

    • Recombinant biopharmaceuticals (active proteins or peptides)
    • Fermentation-derived small molecular therapeutics
    • Diagnostic enzymes
    • Industrial scale fermentation broth for R&D
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    Certification & Compliance
    More Introduction

    Lithium Lactate: Direct Insights from the Factory Floor

    In our daily work at the manufacturing plant, lithium lactate is more than just a product label. We see the powder transform, batch by batch, into a tool used by chemists, diagnostic kit developers, and those making specialty materials for electronics or pharmaceuticals. We think about the people counting on this compound to deliver consistent results in their formulations—and we know every step matters.

    Our Lithium Lactate: Production and Purity

    We make lithium lactate using high-purity lithium carbonate as our primary lithium source and food or pharmaceutical-grade lactic acid. These raw materials matter. The lactic acid we use comes from fermentation, sourced from plant materials, and each lot goes through identity testing before it enters production. We keep our process line closed until purification and drying are complete so our final product will remain free from unwanted contaminants like chlorides, heavy metals, or unreacted acids.

    The resulting lithium lactate comes as a white, free-flowing powder, easily dissolved in water and certain alcohols. Most of our shipments go out meeting pharmaceutical grade standards with lithium content of 6.5% to 7.5% by mass and very low limits for iron, calcium, or other cationic impurities. We have spent years optimizing the crystallization and drying steps to minimize residual moisture, so the compound behaves predictably in the tough conditions of industrial production lines and research labs.

    What stands out about lithium lactate compared to many other lithium salts is its unique anion—lactate. Lactate is much less aggressive than chloride, sulfate, or carbonate anions, creating formulations that are friendlier for biological applications. The lactate ion also brings distinctive chelation properties, which means our material finds a place in buffer solutions, pharmaceutical intermediates, and enzyme stabilization wherever a gentler pH environment is desired.

    Where Our Material Goes and Why It’s Preferred

    We regularly supply lithium lactate for antibody manufacturing, medical device cleaning solutions, battery electrolyte prototypes, and some innovative glass ceramics projects. The research and QA teams from our largest diagnostic customers ask for lithium lactate because of its stability and low background interference.

    Some research teams use lithium lactate in molecular biology to suppress heat shock and boost cell viability. Biotech formulators choose it for its solubility and its compatibility with sensitive proteins and enzymes. In battery research, experimental teams explore lactate complexes to enhance lithium-ion mobility in novel electrolytes. Ceramicists choose it to influence firing curves and glass properties.

    Many buyers once tried to replace lithium lactate with the cheaper chloride or carbonate salts, hoping to save costs. But they discovered heightened corrosivity, less predictable crystallization, or unwanted chemical side reactions. With lithium lactate, there is less concern for aggressive pitting or undesired reactivity—less hassle with reformulation.

    Working with Lithium Lactate: Our Experience

    Each week, we run analytical checks on samples as they head from drying conveyors into the filling rooms. Karl Fischer analysis reads out for moisture content, which we keep under 1%. ICP-MS and ion chromatography catch stray metals or residual sodium and potassium, down to the parts-per-million level. UV testing monitors for organic impurities or color. We keep an eye on these because several customers run large-scale automated chromatography or colorimetric assays where unexpected ions or yellowing throw off detection or downstream separations.

    Powder handling looks routine, but lithium lactate draws moisture quickly if left exposed. Our team regularly trains on fast, careful filling and container sealing so the material maintains its free-flowing nature and storage qualities. We fill in clean rooms under dry nitrogen whenever a customer needs especially tight particle and moisture specs, such as for lyophilization or emergency-use diagnostics.

    What Sets Us Apart: Not Just Making, but Listening

    We’ve learned that “specification compliant” only tells half the story. Feedback from long-term partners shapes how we address the quirks of lithium lactate. Some feedback comes from customers running high-throughput microplate assays, where they notice pipetting issues caused by static charge build-up in excessively dry powders. Others ask about custom sieving for powders that need to disperse rapidly in rapid-mix equipment. Hospitals with point-of-care testing labs ask about packaging in moisture-proof single-use sachets, so nurses and techs avoid sticky, caked powders in humid regions.

    Several times a year, a request comes in for “ultra high purity” grades, especially from cell therapy startups or microelectronic cleanrooms. This pushed our team to invest in additional mixed-bed resin purification and double-stage vacuum drying. These efforts reduced trace cation load and cut unknown organics by over 80%. The researchers who need this product for their highest sensitivity assays rely on our traceability system, which records each batch at every step from raw material through shipment.

    Some users push us for better shelf life and ease-of-use, so we developed multi-layer pouches with an inner liner. These keep out humidity and avoid cross contamination when packs are opened in the lab. With support from industrial partners, we extended our storage guidance to include temperature cycling trials, not just room temperature. Now we provide actual data on stability at 4°C, 25°C, and 40°C so buyers can plan their logistics without guessing.

    Comparing Lithium Lactate with Other Lithium Salts

    Before we started making lithium lactate on a commercial scale, we mostly handled lithium carbonate, lithium chloride, and lithium hydroxide. These salts serve well in batteries and ceramics, but in biological or pharmaceutical labs, they often show their limits.

    Lithium carbonate dissolves much less easily. It leaves a stubborn sediment in many buffers, which frustrates researchers. Lithium chloride is highly soluble but much more corrosive, gradually attacking stainless steel or glassware and giving off unwanted heat in some exothermic reactions. Lithium hydroxide makes a strong base—fine for some syntheses or battery cathode prep, but unsuitable where pH control and gentle buffering matter.

    Lithium lactate takes a different spot. It brings enough lithium ions for scientific needs but avoids the harshness of mineral-based anions. In practical use, it does not trigger as many instrument calibration problems or lead to unpredictable pH jumps. Enzyme work, especially, runs smoother because the lactate ion mimics natural body fluids, reducing protein denaturation or precipitation.

    For customers blending reagents or formulating injectable preparations, the impurity profile in lithium lactate matters. Chloride residue or heavy metals, which are tough to eliminate from other salts, show up quickly in medical testing. Lithium lactate, if produced with care, enables researchers to keep background interference low, especially important for mass spectrometry or tightly regulated pharmaceutical applications.

    Handling and Packaging Challenges: On the Manufacturing Floor

    One reality of lithium lactate: it’s sensitive to both moisture and heat. If the drying cycle runs too hot, the powder agglomerates or chars, which creates lumps or scorched odors that ruin a batch. Too cool, and the powder keeps extra water, reducing flow and shelf life. We've had our share of lessons calibrating dryers, collecting operator feedback, and refining process controls in real time.

    Everything from drum liners to scoop materials and packing order influences the final product. We often get requests for alternative container types or different fill volumes. Diagnostic makers sometimes want six-gram vials, while production-scale enzyme blenders order 25-kilogram kegs. Adjusting between small packs and bulk drums requires changing line setups and confirming scale accuracy in batch splits. Our filling team weighs and re-checks every lot, since a few grams off can throw off critical scientific measurements.

    Shipping this powder to distant labs brings other challenges. In humid climates, even a minor flaw in seam welding on the pouches can lead to powder clumping. We worked with our suppliers to add a third-layer barrier and started running ingress tests, which cut down complaints and product loss in tropical regions.

    Customer Dialogue and Ongoing Challenges

    Increasingly, quality teams at our customers’ sites want to audit our operation. They send questionnaires about traceability, allergens, and cross-contamination risks. Some push for batch-level analysis for allergens such as gluten or soy from lactic acid fermentation feeds. We've improved our lot coding and installed batch-level sampling containers, so audits can be completed on-site without waiting for reference samples.

    With changes in regulatory expectations, we monitor shifts in allowable contaminant levels for pharmaceutical or food-grade markets. Sometimes, a rule will change on heavy metals or allowable solvent residues, and we need to adapt our purification or switch to new suppliers for lactic acid. We’ve learned to build time into our production planning so we can requalify every substituted raw material and avoid disruptions to our customers. Occasionally, a global shortage causes a supply crunch; we always keep extra inventory on hand so regular customers aren’t left waiting.

    Why Lithium Lactate Will Grow in Importance

    More research organizations call us each year, looking to move away from legacy lithium salts due to environmental, health, or reactivity concerns. Lithium lactate, due to its organic anion and milder chemical profile, attracts these innovators. Its role in cell culture, medical test development, and advanced ceramic work means demand only increases.

    As upstream industries look to green and sustainable sourcing, we’re seeing more pressure to document the renewability of our lactic acid. Our buyers request non-GMO or fully plant-based ingredient documentation. We are working with fermentation partners to tighten supply chains and certify our product lines for future regulatory shifts.

    Battery manufacturers experimenting with new electrolyte technologies have also contacted us about specially purified lithium lactate. While much of lithium-ion technology still relies on carbonate or hexafluorophosphate chemistries, we see researchers pursue alternative, safer electrolytes. We run pilot batches with greater control on iron, manganese, and copper, so researchers can test new classes of solid-state and water-based batteries.

    R&D and Technical Support: Embedded in the Process

    Within our facility, a portion of our team focuses every week on R&D for lithium lactate. This hands-on research means we simulate customer processes on a small scale, from diagnostic kit blending to lyophilized drug prep. We work through mixing, drying, and analytical steps to anticipate challenges.

    Technical support from our side does not stop at answering email queries. Sometimes we visit customer pilot labs to troubleshoot, bringing plant technicians and QA specialists along. This technical exchange often leads to tweaks in production or packaging, building trust and often feedback that influences our future batches.

    We also run round-robin stability testing, sending the same batch of material to quality control labs on different continents. These results feed back into our raw material specs and inform us about any regional shipment or climate-related issues long before customers notice a drop in performance.

    Sustainability Considerations in Manufacturing

    Sustainability is coming to the forefront as customers evaluate each ingredient’s carbon footprint or environmental impact. Lactic acid from agricultural sources introduces variables: droughts, crop yield, and local regulation. We mapped our largest supply chains for lactic acid and work to minimize long-distance shipping, lowering fuel consumption.

    Waste handling also requires vigilance. Each stage of lithium lactate production generates process water and spent filtration media. We operate a closed-loop water reuse system and send waste to certified recyclers. Our production team aims for continuous improvement—reducing chemical use, monitoring byproducts, and recovering as much reusable material as possible.

    Looking Ahead: Customization and Transparency

    Each year brings requests for new grades and package types. Diagnostic kit companies propose lyophilized forms, while researchers in catalysis and ceramics sometimes need micro-sized, ultra-dry crystals.

    We have opened more of our process documentation to buyers, explaining choices in drying profile, particle sizing, and analytical protocol. There is growing demand for greater stability data, so we now provide long-term test results and certificates of actual storage conditions. Some partners even ask to see our fermentation and purification documentation to prove traceability from “field to final fill.”

    Transparency does not add expense—it builds loyalty. Researchers, R&D heads, and purchasing managers want direct answers on contaminants, packaging origins, and storage guidance. Our team prepares detailed product history files for key accounts and provides technical visits to top customers before and after product trials.

    The Human Element at the Factory

    Behind every lot of lithium lactate, there are engineers, quality specialists, and operators who care about each container that leaves the plant. Every so often, feedback comes directly from a lab tech three thousand miles away reporting a dispensing or dissolution problem. We share these stories in our morning meetings and use them to drive improvements, from process tweaks to packaging R&D.

    Lithium lactate is more than an ingredient list. It represents trust between us, the manufacturer, and the scientists, engineers, and medical teams who count on every shipment. Our approach puts human relationships at the center, ensuring that as new applications and higher purity needs arise, we stand ready to listen, adapt, and deliver.