Our Products' Applications in Batteries

Lanthanum chloride (III) bis (lithium chloride) complexes can be used as raw materials for the preparation of fluorescent materials, luminescent materials, and photosensitive materials. It has good fluorescence and optical properties and is often used to prepare high brightness fluorescent materials. Due to its excellent optoelectronic performance, it can also be used to prepare optoelectronic devices, such as displays, photoelectric sensors, and solar cells.

Lithium tri-tert-butoxyaluminum hydride is a mild reducing agent mainly used for the selective reduction of ketones.

Due to the presence of active bromine atoms in 2-bromo-1,3,5-triaisopropylbenzene, it is often used as a substrate for cross coupling reactions. By reacting with boronic acid esters, lithium reagents, or other organic metal reagents, diverse functional groups can be introduced onto the benzene ring, providing a flexible platform for synthesizing drug molecules with complex active structures. In drug design, it is often necessary to optimize the interaction between molecules and biological targets by introducing large volumes of aromatic groups. The triisopropylphenyl structure, due to its significant spatial hindrance, can be used to design and synthesize drug candidate molecules with specific spatial arrangements, thereby improving targeting and selectivity, and reducing non-specific binding to non target proteins.

Methyl triphenylphosphine iodide can be deprotonated by strong bases such as butyl lithium, sodium, or potassium to form methylene triphenylphosphine, which is a highly active Ylide reagent. In addition, various unsaturated compounds can be efficiently synthesized through Wittig reaction, and these unsaturated intermediates are often used as key precursors for subsequent functional group conversion or cyclization reactions, playing a bridging role in multi-step synthesis.

13- [(4-vinylphenyl) methyl] -1,4,7,10-tetraoxa-13-azacyclopentadecane is a multifunctional cyclic organic compound with a chemical structure containing vinyl, aromatic, ether oxygen, and nitrogen heterocycles, making it a highly promising monomer in solid-state lithium battery materials. As a solid polymer electrolyte, vinyl provides polymerization ability and can form a three-dimensional cross-linked network through polymerization, endowing the material with excellent mechanical strength and dimensional stability. The ether oxygen group and nitrogen heterocycle together provide a pathway for lithium ion conduction, significantly improving lithium ion mobility. Suitable for high-energy density lithium batteries.

3,3- [[2-cyanoethoxy] methyl] -2- [[4-vinylphenylmethyl] amino] -1,3-propanitrile (CAS: 2091854-73-6) is an organic compound containing multiple functional groups. Its structural characteristics endow it with diverse application potential as a functional monomer in solid-state lithium batteries, especially in the fields of solid-state polymer electrolytes, interface modification materials, and functional additives. As a solid polymer electrolyte monomer, vinyl forms a cross-linked three-dimensional network through polymerization, providing mechanical strength and dimensional stability. Cyan and ether oxygen groups provide a coordination environment for lithium ions, optimize ion migration pathways, and increase lithium ion migration numbers. This can provide high ionic conductivity and enhance the mechanical strength and thermal stability of the electrolyte; Suitable for wide operating temperature range and high energy density batteries.

3,3′-[[2-[(2-cyanoethoxy)methyl]-2-[[(4-ethenylphenyl)methyl]amino]-1,3-propanediyl]bis(oxy)]bis- Propanenitrile, is an organic compound containing multiple functional groups. Its structural characteristics endow it with diverse application potential as a functional monomer in solid-state lithium batteries, especially in the fields of solid-state polymer electrolytes, interface modification materials, and functional additives. As a solid polymer electrolyte monomer, vinyl forms a cross-linked three-dimensional network through polymerization, providing mechanical strength and dimensional stability. Cyan and ether oxygen groups provide a coordination environment for lithium ions, optimize ion migration pathways, and increase lithium ion migration numbers. This can provide high ionic conductivity and enhance the mechanical strength and thermal stability of the electrolyte; Suitable for wide operating temperature range and high energy density batteries.

1,4-Bis (1,1-dimethylethyl) -2- [(4-vinylphenyl) methoxy] -5-methoxybenzene (CAS: 2087496-96-4) is a complex aromatic compound with various functional groups such as vinyl, methoxy, and tert butyl. Its structural characteristics endow it with potential application value in the field of solid-state lithium battery cells, especially in the design of solid-state polymer electrolytes and functional interface materials. As a solid polymer electrolyte monomer, the combination structure of aromatic rings and methoxy groups can form a conduction pathway for lithium ions, enhancing the migration efficiency of lithium ions. The tert butyl side chain provides high thermal stability and mechanical strength, making the material less prone to structural collapse during charge discharge cycles. Not only does it provide high lithium-ion conductivity, but it also improves the thermal stability and mechanical strength of the electrolyte; Suitable for solid-state batteries with high energy density and high safety.

1,4-Bis(1,1-dimethylethyl)-2,5-bis[(4-ethenylphenyl)methoxy]benzene is a complex aromatic compound with various functional groups such as vinyl, methoxy, and tert butyl. Its structural characteristics endow it with potential application value in the field of solid-state lithium battery cells, especially in the design of solid-state polymer electrolytes and functional interface materials. As a solid polymer electrolyte monomer, the combination structure of aromatic rings and methoxy groups can form a conduction pathway for lithium ions, enhancing the migration efficiency of lithium ions. The tert butyl side chain provides high thermal stability and mechanical strength, making the material less prone to structural collapse during charge discharge cycles. Not only does it provide high lithium-ion conductivity, but it also improves the thermal stability and mechanical strength of the electrolyte; Suitable for solid-state batteries with high energy density and high safety.

N,N,N-triethyl-4-vinylbenzylamine chloride (1:1) is an organic compound containing a quaternary ammonium salt structure and vinyl functional groups. Its unique chemical properties endow it with potential application value in solid-state lithium batteries, especially in the fields of functionalized polymer electrolytes and interface stabilizers. As a functional material for improving interface stability, the polarity characteristics of quaternary ammonium salts enhance the interface compatibility between solid electrolytes and lithium metal or positive electrode materials. Form a stable ion conductive film at the interface of lithium batteries to reduce interface side reactions. Can reduce interface impedance; Inhibit the growth of lithium dendrites and enhance the safety of batteries; Improve the cycle life of batteries.

1-Methyl-3- (4-vinylbenzyl) imidazolium chloride is an organic compound containing imidazolium cation and vinyl functional groups. These compounds have excellent electrochemical and ionic conductivity properties, making them highly promising for applications in solid-state lithium battery cells, especially in the fields of polymer electrolytes and interface functional materials. As an ionic liquid electrolyte monomer, the presence of imidazolium cations endows the material with properties similar to ionic liquids. It can improve the rate performance, wide operating temperature range, and long cycle life of lithium batteries.

1,4-Bis [(4-vinylphenyl) methyl] piperazine is a multifunctional organic compound with potential application value in the design of solid-state lithium battery materials due to its unique structure, especially in the fields of solid-state polymer electrolytes, interface stabilizers, and functional additives. In the construction of solid polymer electrolytes, double vinyl groups can polymerize to form cross-linked structures, enhancing the mechanical strength and dimensional stability of the polymer electrolyte, and preventing lithium dendrite piercing. The piperazine group improves the ion conduction pathway and enhances the lithium ion migration number of polymer electrolytes.

1,1 '- [2,1-ethoxymethylene] bis [4-vinylbenzene] is an organic compound containing vinyl groups and a special structure. Its unique chemical structure endows it with potential application value in solid lithium batteries, especially in the fields of high-performance polymer electrolytes and functional materials. The double vinyl group can form a high-density three-dimensional cross-linked network in the polymerization reaction, which helps to improve the mechanical strength of the electrolyte and prevent lithium dendrites from piercing the electrolyte; Enhance the thermal and dimensional stability of polymer electrolytes. This makes it particularly suitable for application in solid-state lithium batteries, meeting the requirements of high energy density and high safety.

4-vinyl-N, N-bis [2- (2-methoxyethoxy) ethyl] phenylmethylamine (CAS: 1236377-33-5) is a functionalized organic compound with potential applications in solid-state lithium batteries, especially in the field of electrolytes. Through polymerization, the monomer can form a conductive polymer electrolyte membrane, which is used to improve the conductivity of lithium ions in solid-state batteries and enhance their interfacial stability. In addition, in solid-state lithium batteries, a layer of interface modification rich in lithium affinity groups is formed by polymerization or coating on the electrode surface, reducing the interface impedance between the electrolyte and the electrode. Phenyl and polymeric structures provide mechanical strength while avoiding interface side reactions such as lithium dendrite growth or interface decomposition.

1-chloroethyl carbonate is commonly used as an electrolyte additive in lithium-ion batteries, which can optimize the stability and ion conductivity of the electrolyte. It can help form a stable solid electrolyte interface (SEI) layer during battery charging and discharging, thereby improving the cycle life and thermal stability of the battery, enhancing the safety and overall performance of lithium batteries. In addition, 1-chloroethyl carbonate can be used as a crosslinking agent or monomer modifier in polymer synthesis for the preparation of high-performance polymer materials. Carbonate groups help improve the strength, chemical resistance, and flexibility of materials during polymerization, making them suitable for applications in adhesives, coatings, and film materials.

1-chloroethyl methyl carbonate can be used as an electrolyte additive in lithium-ion batteries to improve their performance and stability. It can interact with other components in the electrolyte to help optimize the ion conductivity of lithium-ion batteries, enhance their cycle life and stability. In addition, the structure of carbonate compounds helps the electrolyte form a protective solid electrolyte interface (SEI) layer during battery operation, thereby improving the overall performance of the battery. In addition, carbonate groups have good chemical and thermal stability, making them an ideal choice for coatings and surface modification materials. 1-chloroethyl methyl carbonate can be used to synthesize functional coating materials that are corrosion-resistant and heat-resistant, improving the durability and chemical stability of the substrate, and is suitable for industries such as aviation, automotive, and electronics.

This compound has potential applications in the field of solid-state lithium batteries, especially as a polymer electrolyte or electrode interface modifier. The vinyl group in this compound enables it to participate in free radical polymerization reactions, forming a cross-linked polymer network. In solid-state lithium batteries, this cross-linked polymer electrolyte can provide good mechanical properties and electrochemical stability. The solid electrolyte formed through polymerization reaction can provide a lithium ion conduction path while maintaining a stable shape, effectively improving the overall performance of the battery. The imidazole group is a nitrogen-containing heterocyclic structure with certain polarity and ionic conductivity. In solid-state lithium batteries, imidazole groups can chelate with lithium ions, promote the migration of lithium ions, and enhance the ion conductivity of the electrolyte. This is crucial for improving the transmission efficiency of lithium ions and enhancing the electrochemical performance of batteries.

The vinyl group in this compound can participate in polymerization reactions to form a cross-linked polymer network. As a monomer in polymer electrolytes, vinyl can form cross-linked structures with other monomers through free radical polymerization, enhancing the mechanical properties and shape retention ability of polymer electrolytes. This cross-linked network can provide stable ion transport channels in solid-state lithium batteries and reduce the risk of deformation and rupture of electrolyte membranes during long-term use. In addition, hexafluorophosphate is a common lithium salt anion widely used in electrolytes for lithium batteries. This anion has good electrochemical stability and can participate in ion conduction processes together with lithium ions. In this compound, hexafluorophosphate can enhance the ion conductivity of the electrolyte, allowing lithium ions to migrate more efficiently in solid polymer electrolytes.

Due to the presence of vinyl groups (which can participate in free radical polymerization reactions), this compound can serve as a crosslinking monomer for the preparation of crosslinked polymer electrolytes. In solid-state lithium batteries, cross-linked polymer electrolytes have excellent mechanical strength and shape retention ability, which can reduce the risk of electrolyte swelling and thermal degradation, thereby improving the stability and safety of the battery. In addition, phosphate groups can provide good ion conductivity, which is crucial for the development of polymer electrolytes. The oxygen atoms in phosphate ester groups can form stable complexes with lithium ions, promote the migration of lithium ions, and improve the ion conductivity of electrolytes. This is crucial for improving the overall electrochemical performance of solid-state lithium batteries.

Due to the presence of vinyl groups (which can participate in free radical polymerization reactions), this compound can serve as a crosslinking monomer for the preparation of crosslinked polymer electrolytes. In solid-state lithium batteries, cross-linked polymer electrolytes have excellent mechanical strength and shape retention ability, which can reduce the risk of electrolyte swelling and thermal degradation, thereby improving the stability and safety of the battery. In addition, phosphate groups can provide good ion conductivity, which is crucial for the development of polymer electrolytes. The oxygen atoms in phosphate ester groups can form stable complexes with lithium ions, promote the migration of lithium ions, and improve the ion conductivity of electrolytes. This is crucial for improving the overall electrochemical performance of solid-state lithium batteries.