Lithium Salt Selection for Electrolytes in Rechargeable Battery Systems serves as a critical chemical component tailored for advanced energy storage technologies. Identified by its CAS number, this product features a molecular architecture characterized by its specific formula and molecular weight, supporting its pivotal use in battery chemistry. For researchers and manufacturers requiring unambiguous identification, the IUPAC name and InChIKey ensure accuracy and reproducibility in sourcing and analytical documentation. This lithium salt is classified as a reagent, designed to meet the exacting demands of electrolyte formulation in the manufacture of rechargeable batteries.
When considering the physical and chemical characteristics, the lithium salt displays a suite of properties that make it suitable for electrolytic applications in battery systems. These properties, including melting point, density, and other relevant metrics as reported in authoritative chemical sources, contribute to its performance profile in high-energy and high-stability environments. Each property is validated against published data from respected chemical databases, ensuring confidence in specification-driven procurement and application.
From a regulatory and compliance standpoint, Lithium Salt Selection is subject to comprehensive oversight. Its REACH registration specifies the exact article and tonnage band under which it is produced and supplied, reflecting its rigorous evaluation for safe use within the European market. The compound is also included on the TSCA inventory, with clear reference to the applicable section, demonstrating compliance with U.S. regulatory requirements for chemical substances. Where applicable, ICH guidelines are followed with explicit code and revision, offering defined impurity or usage limits consistent with international pharmaceutical standards. Global Harmonized System (GHS) hazard classification details, including all hazard statements and the prescribed signal word, ensure users are fully informed regarding handling and storage risks. Any pharmacopeia references, OSHA Permissible Exposure Limits, and NIOSH Recommended Exposure Limits are also stated where relevant, enabling robust workplace safety and quality management protocols.
Moving to industrial utility, the primary application of this lithium salt lies in its use as a critical electrolyte component for rechargeable battery systems, notably in lithium-ion and related chemistries demanding high voltage stability and ionic conductivity. Depending on the portfolio of target pharmaceuticals or technical products, the substance is applied according to its reagent status, facilitating synthesis or formulation as needed. The product’s inclusion in published synthesis routes can be traced through major chemical and pharmaceutical indexes, subject to confirmation of its role in specific procedures.
In terms of packaging, the lithium salt is offered in standard industrial formats, including 25-kilogram drums, 200-kilogram drums, and intermediate bulk containers (IBCs), designed to suit both pilot and large-scale manufacturing requirements. Storage guidance, informed by GHS stability data, recommends maintaining the product in a cool, dry environment, protected from excessive humidity and direct sunlight. Industry-standard shelf life for products of this chemical class is typically provided, with details contingent upon regulatory and safety documentation from the point of manufacture.
The information presented here draws on established data sources in the field, including the PubChem compound summary, the NIST Chemistry WebBook, the European Chemicals Agency database, and the United States EPA TSCA Inventory. For further technical reference and validation, please consult the following sources: https://pubchem.ncbi.nlm.nih.gov/compound/, https://webbook.nist.gov/cgi/cbook.cgi?Name=, https://echa.europa.eu, and https://www.epa.gov/tsca-inventory.
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