The unique performance of solid electrolyte LATP ceramic sheet Li1.3Al0.3Ti1.7 (PO4) 3 lithium aluminum titanium phosphate (LATP) film solid electrolyte material makes it an ideal choice for all solid-state lithium batteries, advanced lithium sulfur batteries, lithium-air batteries, lithium-water batteries, etc. The LISICON (lithium ion superion co1
Foam nickel is a kind of porous metal with three-dimensional full through mesh structure, which is made of foam like metal nickel through high-tech deep processing.
LGPS Sulfide solid electrolytes are currently the inorganic solid electrolyte materials with the highest ionic conductivity, which have advantages such as good thermal stability, wide electrochemical window, and good mechanical properties. They are the key electrolytic materials used in all solid-state batteries.
Sodium nickel iron manganese oxide is a chemical substance with the chemical formula NaNi1/3Fe1/3Mn1/3O2 . It is a composite oxide composed of four elements: sodium, nickel, iron, and manganese. Sodium nickel iron manganate has excellent electrochemical performance and is widely used in the field of batteries.
Sodium Nickel Iron Manganate Coated on Aluminum Foil,The contact between the particles and the current collector is better, and the internal resistance of the battery is smaller, which is conducive to the exertion of gram capacity and improves cycle and rate performance.
Electrolyte salt Mg [B (HFIP) 4] 2 is mainly used in organic magnesium metal batteries and is soluble in various ether solvents as an electrolyte. Among them, the large boron center anion has the characteristics of high oxidation stability, weak coordination ability, and good compatibility with the metal magnesium negative electrode, which makes th1
The chemical formula of sodium iron sulfate is Na2Fe2 (SO4) 3, and its structure is composed of sodium ions Composed of iron ions and sulfate ions. In electrochemical reactions, sodium iron sulfate can release or absorb metal ions such as lithium ions and sodium ions through ion exchange reactions, achieving the charging and discharging process of 1