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L-Lactic Acid Lithium Salt

    • Product Name L-Lactic Acid Lithium Salt
    • Alias LA-Li
    • Einecs 633-166-3
    • 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

    119106

    Chemical Name L-Lactic Acid Lithium Salt
    Molecular Formula C3H5LiO3
    Molecular Weight 96.01 g/mol
    Appearance White to off-white powder
    Solubility In Water Soluble
    Melting Point Decomposes before melting
    Cas Number 867-56-1
    Storage Conditions Store at room temperature, keep container tightly closed
    Optical Activity Chiral (L-isomer, dextrorotatory)
    Synonyms Lithium L-lactate
    Ph Of Solution Approximately 7-9 (1% solution in water)
    Usage Buffering agent, pharmaceutical and chemical synthesis

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

    Packing & Storage
    Packing L-Lactic Acid Lithium Salt is packaged in a 25g amber glass bottle with a secure screw cap and tamper-evident seal.
    Shipping L-Lactic Acid Lithium Salt should be shipped in tightly sealed containers, protected from moisture and light. It is typically packed in compliance with local and international regulations. The product must be handled as a chemical substance, with appropriate labeling and safety documentation, and transported under cool, dry conditions to ensure stability and quality.
    Storage L-Lactic Acid Lithium Salt should be stored in a tightly closed container at room temperature, ideally in a cool, dry, and well-ventilated area. It should be kept away from sources of moisture, heat, and incompatible substances such as strong oxidizers. Proper labeling and secure storage help prevent contamination and ensure safe handling. Always follow local safety and regulatory guidelines.
    Application of L-Lactic Acid Lithium Salt

    Applications of L-Lactic Acid Lithium Salt in Industrial Manufacturing

    As a direct manufacturer, we supply L-Lactic Acid Lithium Salt to trusted partners across a range of industry sectors. This specialty lithium compound serves specific advanced functions in several high-value downstream manufacturing environments. Below, we detail its controlled roles, regulatory context, usage parameters, integration points, and the final product categories in which it is currently adopted internationally.

    1. Lithium-Ion Battery Electrolyte Additives

    Leading battery producers incorporate L-Lactic Acid Lithium Salt as a functional additive to stabilize interfaces and enhance the cycling performance of lithium-ion batteries, especially for high-performance applications such as electric vehicles and energy storage systems. This material addresses issues of electrolyte decomposition and interface resistance by favoring SEI film formation on graphite anodes.

    Industry compliance standards

    • RoHS Directive 2011/65/EU and its amendments
    • IEC 62660-2 (International Standards for Secondary Lithium Cells for Automobiles)
    • ISO 9001:2015 for quality management during manufacturing
    • UN38.3 Safety Testing for lithium batteries

    Typical usage ratio

    • 0.1–0.5 wt% in non-aqueous electrolyte blends; manufacturers may adjust concentration based on graphite and cathode material compatibility, and intended cycling life.

    Downstream process integration

    • Added during electrolyte solution compounding, either in solvent mixture or in final lithium salt blending prior to cell assembly; requires dissolution under inert atmosphere to prevent moisture uptake.

    Final product types

    • Lithium-ion battery packs for electric vehicles
    • Stationary energy storage batteries
    • Consumer electronics power cells

    2. Biodegradable Polymer Synthesis (PLA Copolymers)

    Producers of biodegradable plastics employ L-Lactic Acid Lithium Salt as a catalyst modifier or co-catalyst in the ring-opening polymerization of lactide for PLA copolymer production. Its application allows controlled molecular architecture, improved optical properties, and tailored degradation rates for environmentally sensitive products.

    Industry compliance standards

    • EU Regulation (EC) No 10/2011 on plastic materials and articles intended to come into contact with food
    • US FDA CFR 21 177.1630 for poly(lactic acid) as a food-contact substance
    • ISO 14855 for controlled compostability testing
    • REACH Regulation (EC) No 1907/2006 for chemical registration

    Typical usage ratio

    • 50–200 ppm as an initiator or co-catalyst; dosage is optimized based on targeted molecular weight and polymerization rate in batch or continuous polymer reactors.

    Downstream process integration

    • Introduced during the lactide-to-PLA ring-opening polymerization stage; precise metering equipment dispenses the salt to reactor systems under inert gas protection to prevent unwanted side reactions.

    Final product types

    • Compostable packaging films and sheets
    • Biomedical-grade PLA devices
    • Disposable tableware and compostable containers

    3. Advanced Lubricant Formulations for High-Performance Greases

    Industrial lubricant compounders use L-Lactic Acid Lithium Salt to formulate high-performance lithium-based greases, particularly where enhanced corrosion inhibition and temperature stability are demanded, such as in automotive, marine, and high-speed machinery applications. Its incorporation fine-tunes the complex soap structure and improves the hydrophilic-lipophilic balance, supporting both performance and reliability.

    Industry compliance standards

    • DIN 51825 for multi-purpose lubricating greases
    • ASTM D4950 classification for lubricating greases
    • ISO 6743-9 for lubricants, industrial oils, and related products
    • Reach Annex XVII compliance for hazardous substances

    Typical usage ratio

    • 0.05–0.2 wt% relative to total grease mass; adjusted according to base oil group and additive pack interactions to ensure soap stability and anti-corrosion performance.

    Downstream process integration

    • Added at the saponification phase, during lithium soap formation, under controlled temperature to ensure even distribution; post-addition blending may follow for specific performance adjustments.

    Final product types

    • Extreme pressure bearing greases
    • Automotive chassis greases
    • Industrial gear and coupling greases

    4. Antimicrobial Agents in Personal Care and Household Cleaning

    Leading formulating companies integrate L-Lactic Acid Lithium Salt as an antimicrobial enhancer in select personal care and institutional cleaning agents where natural origin and low toxicity are priorities. By modulating microbial environments and boosting the bioactivity of lactic acid systems, it allows manufacturers to develop products with improved preservation and safety profiles.

    Industry compliance standards

    • EU Cosmetics Regulation (EC) No 1223/2009
    • US FDA OTC Monograph for topical antimicrobial products (where applicable)
    • ISO 11930 for preservation efficacy of cosmetic products
    • Good Manufacturing Practice (GMP, ISO 22716) audit implementation

    Typical usage ratio

    • 0.03–0.15 wt% in water-based formulations; optimized to balance antimicrobial performance against mildness and formulation stability, especially where product pH is tightly regulated.

    Downstream process integration

    • Pre-dissolved in aqueous phase during emulsion or surfactant blending; careful pH adjustment is applied after salt incorporation to ensure compatibility with other bioactive ingredients and preservatives.

    Final product types

    • Facial cleansers and hand sanitizing gels
    • Household disinfectant sprays
    • Institutional surface detergents for healthcare and food-contact areas

    5. Specialty Electroplating Additives for Metal Surface Treatments

    Electroplating workshops incorporate L-Lactic Acid Lithium Salt in specialty bath formulations to act as a grain refiner and leveling agent in the electrodeposition of metals such as nickel, zinc, or mixed-alloy coatings. Its lactic structure provides selective metal complexation, supporting higher deposit uniformity and reduced surface defects in finished metallized goods.

    Industry compliance standards

    • ISO 6158 for metal plating and surface finishing
    • REACH Registration for plating chemicals
    • RoHS compliance for finished electrical/electronic components
    • Local environmental discharge regulations (e.g., US EPA Clean Water Act)

    Typical usage ratio

    • 20–80 mg/L of plating solution; tuned according to substrate type, current density, and target microstructure of deposit layers.

    Downstream process integration

    • Direct addition to plating bath during electrolyte make-up; monitored and replenished in cyclical processes to ensure grain-fining effect remains stable over extended production campaigns.

    Final product types

    • High-gloss appliance parts
    • Automotive fasteners and chassis fittings
    • Decorative and corrosion-resistant plated components
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    Certification & Compliance
    More Introduction

    L-Lactic Acid Lithium Salt: Connecting Chemistry with Practical Application

    L-Lactic Acid Lithium Salt plays a proven and reliable part in the chemical landscape. At our site, we’ve spent years hammering out the methods and quality controls this compound demands, always finding that genuine experience counts for more than any marketing brochure. This product, sometimes labeled by its precise standard as Model LT-Li98, emerges from a process that centers on fermentation and controlled neutralization, leading to a lithium salt that upholds tight purity standards. Unlike generic lactic salts, this one uses the biologically active L-isomer, which reflects its origins in natural fermentation—not petrochemicals or synthetic shortcuts.

    How We Shape Quality and Consistency

    Long before it goes into a drum or a bag, L-Lactic Acid Lithium Salt takes shape in reactors and purification columns under our direct watch. We crank out batches with a typical purity exceeding 98%, but lab results don’t tell the whole story. Physical feel, solubility, and even the way a sample responds to atmospheric moisture tell stories about batch quality. Raw materials—lithium carbonate and food-grade L-lactic acid—get tested every time. We pull samples at every stage, and we trust in techniques like HPLC and titration when confirming what’s really in the drum.

    Customers come back because they see the actual value in our strict controls. Pharmacological and battery researchers appreciate a product where each lot number tracks back to records and people. That data trail lets us troubleshoot or reproduce outcomes on demand. We also stick to moisture and particle size profiles that keep the salt free-flowing and easy to handle, even if humidity spikes in the warehouse.

    Understanding Practical Differences from Other Lithium Salts

    People sometimes lump lithium salts together, but not all carry the same properties or serve the same jobs. L-Lactic Acid Lithium Salt stands apart from lithium carbonate, lithium chloride, and the rest. Its distinct structure means a lower melting point and different solubility behavior. While carbonate dominates energy storage, and the chloride lands in specialty applications, our lithium lactate offers biocompatibility and gentle handling that attracts the eye in medical research, food technology, and specialty electrochemistry. Some customers start by asking for just any lithium additive; they quickly learn formulations that run fine with chloride or carbonate end up in trouble—there’s a boost in ionic mobility and biocompatibility in the lactate that other salts can’t match.

    Differences make themselves clear when actual project requirements enter the picture. For example, pharmaceutical labs need only minute contamination and specific ion profiles. Our processes cut the trace sodium and potassium to levels that won’t disrupt sensitive reactions. In food and nutraceuticals, our product’s L-isomeric purity guarantees compatibility with fermentation-based systems. Feedback from R&D partners tells us that swapping generic lithium sources for ours can flip toxicology results or allow new formulation routes.

    Where Experience and Application Intersect

    Over more than a decade, we’ve watched trends in research push L-Lactic Acid Lithium Salt into unexpected niches. Early on, most demand came from chiral synthesis and buffer formulations—clean, well-defined usage everyone understood. Lately, though, battery developers and biomedical engineers call up looking for the subtle reactivity and biocompatibility this salt gives over its cousins. In some cases, our salt serves as an electrolyte enhancer in research prototypes where safety matters as much as conductivity. Environmental simulation labs like that our product degrades neatly, leaving only naturally occurring lactate and lithium ions—no unwanted byproducts from halides or carbonates.

    Requests from researchers in controlled-release drug systems pushed us to focus harder on reliable particle sizing. A standard batch holds a median size under 500 microns, which keeps dissolution rates predictable. One food technologist noticed an odd graininess in a custom application and traced it to a competitor’s lot with oversized crystals. Our process guarantees a smooth, free-flowing powder, so it blends evenly in customized formulations for supplements or food additives.

    We maintain trace element levels well below standard pharmacopeia requirements. In real-world terms, this means researchers see minimal interference or background ‘noise’ in vital assays. Where other manufacturers stop at basic specifications, we pull in more comprehensive analytics—ICP for heavy metals, microbial screening, contamination audits—because we have seen how small details affect large-scale outcomes. We’ve learned that one-off test failures or equipment fouling often call back to impurities missed by shortcut testing.

    Actual Applications—What End Users Ask For

    Battery scientists sometimes look to L-Lactic Acid Lithium Salt for prototype work, especially in aqueous or hybrid systems. Its mild acidity and ready water solubility mark it out as a buffer and additive in lab-scale tests. Biomedical researchers ask about our experience tailoring the material for in vivo compatibility, where L-lactate brings metabolic familiarity and low toxicity compared to the typical lithium salts. It even pops up in elements of personal care, thanks to its gentle profile and background in fermentation chemistry.

    Our product’s consistent performance has brought in demand from those working on time-release pharmaceutical products and nutritional supplements. They want a salt that delivers steady ion release without punchy flavors or bitterness. In oral and topical formulations, feedback points to the salt’s mellow taste and easy integration, supporting gentle nutrient delivery without harsh bodily reactions linked to other lithium forms.

    A few researchers digging into polymer electrolysis pointed us to a new use: L-Lactic Acid Lithium Salt raises ionic conductivity while minimizing hydrolytic breakdown. They reported less yellowing and physical degradation in prototype resins. We field technical calls weekly and often wind up troubleshooting alongside end users. Sometimes a lab struggling with inconsistent results expects big improvements just from switching lithium forms. Real differences show up only after addressing spectral purity and matching the lactic acid isomeric content, too—details we control in every batch.

    Regulatory Realities and Responsible Production

    We’ve long understood the headaches that come from inconsistent documentation or murky batch provenance. Partnering with customers from Europe, North America, and Asia has drilled home the range of regulations and documentation practices expected by end users worldwide. Every production lot we ship carries a full certificate of analysis matching regional reporting standards. Our protocols cover everything from ISO-driven certifications to local audits and residue testing, and we know just how fast scrutiny can shift following an adverse event reported in a faraway market.

    Our staff includes technicians who’ve grown up with GMP, HACCP, and rigorous traceability demands. Instead of waiting for regulatory bodies to move the bar higher, we aim for documentation that stands up to unannounced inspections and trending marketplace certifications. Lessons learned from earlier years—such as unexpected changes in heavy metal content or fluidity—push us to continuously check more than the minimum. These safeguards don’t just address compliance; they make life easier for customers navigating time-sensitive approvals and introducing new products to competitive markets.

    We avoid synthetic shortcuts and chase recurrence checks to keep the product safe across supply fluctuations. This mindset means spending more up front but leads to long-term productivity, less waste, and fewer product recalls. Bulk buyers in Asia and lab-scale customers in Europe both call out the reassurance that comes from getting the same results month after month. Our process also means quick responsiveness if a customer ever detects an off-spec shipment—our tracking lets us isolate disruptions before a customer faces a costly recall or failed experiment.

    Sustainability and Supply Security

    Raw material sourcing used to feel straightforward, but rising demand for lithium has changed the game. We keep strategic ties with reliable suppliers—verified audits, price stability plans, and contingency stockpiles shield us and partners against wild price swings or geopolitical shocks. Our fermentation-backed L-lactic acid relies on non-GMO corn glucose, managed to minimize the environmental footprint from start to finish. Customers now ask detailed questions about upstream inputs, and we answer with data—water use, residue controls, verified waste handling, and renewable sourcing. These aren’t sales talking points; they’re the hard realities that define market access and product choice.

    The genuine sustainability edge for L-Lactic Acid Lithium Salt shows up in application and lifecycle. It breaks down into naturally occurring lactate and lithium ions, unlike lithium halides which leave persistent residues. That means less wastewater cleanup and easier post-use disposal, a factor that’s turning into a key purchasing requirement for forward-thinking buyers. We’ve invested in process tweaks that cut embedded energy and reduce emissions—upgrades like closed-loop water recovery and low-temperature evaporation didn’t just save on utilities, they raised consistency batch-to-batch.

    In years past, importing or exporting specialty chemicals meant bracing for delays and disruptions. Surging lithium demand for batteries put even niche players like us on supply chain watch. By locking down in-house purification and batch flexibility, we kept deliveries moving where others stalled. Partners felt the difference: research didn’t lock up, production lines didn’t stall, and buyers avoided the costly jump between spot-market alternatives.

    Why Specifications Matter—Real World Outcomes

    Spec sheets fill out plenty of purchase orders, but the numbers only become real in daily work. We’ve watched customers troubleshoot research failures or flavor irregularities only to find contaminants or poor isomer control in their lithium source. Filtering out microtraces of sodium, eliminating trace biometals, guaranteeing an L-isomer—these details carry a high price in R&D, but they pay off when it’s time to launch or scale a product. Customers who switched to our L-Lactic Acid Lithium Salt pulled back on adjustment steps, cleaned up downstream analytics, or just ran their projects with less drama.

    A beverage developer once reported harsh, metallic notes ruining a lithium-fortification test batch. The trace came from a supplier who cut corners mixing racemic, less expensive lactic acid. After trialing our certified L-form material, they found a neutral taste and easy dissolution. Pharmaceutical clients, under pressure to meet narrow impurity thresholds, saw lower batch rejection and less regulatory pushback. Polymer chemists found finer control over ion release and color stability in new material blends.

    What distinguishes L-Lactic Acid Lithium Salt across these stories isn’t a single flashy feature. It’s the mix of consistent L-lactate, tight impurity control, recorded analytics, and steady supply that forms the real story. Our process may not suit those who cut costs by relaxing on quality or documentation, but for users chasing high standards, these product advantages are real and tested in both lab and production environments.

    Looking Forward—Industry Changes and Tougher Standards

    Markets shift and regulatory bars keep rising. End users now expect not only traceable chemistry but transparent sourcing, ethical labor statements, and environmental impact scores. Without firsthand investment and control over the production process, any manufacturer is always playing catch-up. Users of L-Lactic Acid Lithium Salt—whether in food, pharma, or tech—ask deeper questions about what’s actually in the drum and where it came from.

    Customers now flag issues in “off-the-shelf” alternatives: drifting isomer ratios, inconsistent bulk densities, dusting, or contaminant surprises. Each one can derail project timelines or cost credibility in regulated markets. Reacting to these shifts takes more than bolted-on certifications. We’ve found that building every batch from the raw ingredient audit up gives a margin of comfort that lets our partners operate, scale, and innovate without constantly managing risk.

    Partnerships with researchers and product developers make our days more interesting and keep us honest. Every new request for data, every troubleshooting session, keeps quality efforts grounded in practical results. We encourage detailed batch feedback and surface every deviation, giving partners real visibility into what actually arrives—not just what paperwork claims. This openness isn’t always the fastest route, but it pays off through fewer recalls, steadier R&D output, and products that clear tough regulatory reviews on the first attempt.

    Closing Thoughts from the Production Floor

    Every batch of L-Lactic Acid Lithium Salt reflects a network of hands and eyes focused on practical success, not speculative marketing. Our reputation rides on test results, customer outcomes, and real transparency. The chemical market won’t tolerate shortcuts for long—the feedback is immediate and unforgiving. We build our product for those who know the stakes: the researchers who need accurate, repeatable inputs, the developers who can’t risk batch-to-batch drift, and the production managers who demand clear supply lines and reliable specification delivery.

    Decades spent in production, troubleshooting, and working alongside innovators have taught us that every new advance depends on pulling together real-world consistency and openness. In specialty chemicals—especially L-Lactic Acid Lithium Salt—the smallest changes can reshape outcomes. The toughest markets ask hard questions and expect clear answers. We meet those challenges not with generic solutions, but with proven, tested, and fully traceable product lines.