Controlling Cell Components to Design High-Voltage All-Solid-State Lithium-Ion Batteries.
Anirudha JenaBehrouz BazriZizheng TongKevin IputeraJheng-Yi HuangDa-Hua WeiShu-Fen HuRu-Shi LiuPublished in: ChemSusChem (2023)
All-solid-state batteries with solid ionic conductors packed between solid electrode films can release the dead space between them, enabling a greater number of cells to stack, generating higher voltage to the pack. This Review is focused on using high-voltage cathode materials, in which the redox peak of the components is extended beyond 4.7 V. Li-Ni-Mn-O systems are currently under investigation for use as the cathode in high-voltage cells. Solid electrolytes compatible with the cathode, including halide- and sulfide-based electrolytes, are also reviewed. Discussion extends to the compatibility between electrodes and electrolytes at such extended potentials. Moreover, control over the thickness of the anode is essential to reduce solid-electrolyte interphase formation and growth of dendrites. The Review discusses routes toward optimization of the cell components to minimize electrode-electrolyte impedance and facilitate ion transportation during the battery cycle.
Keyphrases
- solid state
- ion batteries
- induced apoptosis
- reduced graphene oxide
- cell cycle arrest
- solar cells
- single cell
- cell therapy
- endoplasmic reticulum stress
- stem cells
- room temperature
- optical coherence tomography
- magnetic resonance imaging
- metal organic framework
- ionic liquid
- bone marrow
- gold nanoparticles
- magnetic resonance