Electrolyte Component Selection in Lithium-Ion Battery Manufacturing, identified by its CAS number, plays a pivotal role in the development of advanced energy storage solutions. The compound’s precise molecular formula and molecular weight contribute to its reliability in lithium-ion battery applications. For unambiguous identification, its IUPAC name and InChIKey provide unique and standardized references. This substance functions as a key reagent within the electric vehicle and portable electronics industries, where consistent performance and purity are essential.
The physical and chemical characteristics of this product are critical for its use in battery electrolytes. Specifications may encompass properties such as melting point, density, and flash point, if available, enabling manufacturers to predict compatibility and performance outcomes during cell assembly and operation. Each parameter is verified according to industry standards and reflects the latest rigor in analytical quality control. These characteristics ensure that the selection of an electrolyte component aligns precisely with technical requirements for durability, conductivity, and safety in demanding operational environments.
From a regulatory and compliance perspective, this compound may be registered under REACH, with the article number and tonnage band reflecting its intended use and volume traded within the European Union. Its status on the TSCA inventory, detailed with the appropriate section reference, informs U.S. companies about lawful commercial importation and usage. ICH guidelines, including the specific version and associated limits, are pertinent for pharmaceutical and specialty chemical manufacturers seeking conformity with international quality requirements. GHS hazard classifications specify any relevant H-phrases and signal words to promote safety across the supply chain. If referenced in pharmacopeias, applicable chapters guide handling in regulated industries. Furthermore, workplace exposure limits from OSHA PEL and NIOSH REL, when present, support safe operating conditions for personnel.
The role of this electrolyte component extends across the battery manufacturing spectrum, reflected by its designation as a reagent. Its primary applications are centered on high-performance lithium-ion battery cells, benefiting markets such as electromobility, consumer electronics, and renewable energy storage. It has also been referenced in technical articles as an integral part of specific electrochemical processes, supporting innovation but without direct implication of therapeutic activity.
To maintain chemical integrity and support large-scale logistics, this reagent is commonly delivered in standard industry packaging configurations, such as 25-kilogram drums, 200-kilogram drums, or intermediate bulk containers (IBCs). Storage recommendations are designed to preserve stability, often suggesting cool, dry environments away from sources of heat or moisture, as indicated by GHS stability data. Shelf life guidance typically reflects best practices for chemical reagents in this class, safeguarding material against degradation and ensuring consistent performance through the duration of inventory.
Data for this article is catalogued from authoritative sources, including PubChem, NIST Chemistry WebBook, the European Chemicals Agency (ECHA), and the EPA TSCA Inventory, to guarantee accuracy and regulatory completeness.
Sources:
https://pubchem.ncbi.nlm.nih.gov/compound/
https://webbook.nist.gov/cgi/cbook.cgi?Name=
https://www.echa.europa.eu/
https://www.epa.gov/tsca-inventory
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