Results 151 to 160 of about 1,728,746 (293)

The Recycling of Spent Lithium-Ion Batteries: Crucial Flotation for the Separation of Cathode and Anode Materials. [PDF]

Molecules, 2023
Ma X, Ge P, Wang L, Sun W, Bu Y, Sun M, Yang Y.   +6 more
europepmc   +1 more source

Sustainable Revival of Spent Lithium Iron Phosphate Cathodes in Li‐Ion Batteries: Recycling and Surface Engineering Approaches

ENERGY &ENVIRONMENTAL MATERIALS, EarlyView.
Schematic illustration of the lifecycle of LiFePO4 cathodes. Lithiation and delithiation reactions happen through its discharging and charging processes. Recycling pathways including hydrometallurgy, pyrometallurgy, and direct regeneration enable sustainable reuse of spent LFP materials. Surface modification approaches (carbon, polymer, and metal/metal
Yan He, Ruigang Wang
wiley   +1 more source

Discharge‐Driven Turbo Formation Stabilizes Cathode–Electrolyte Interfaces in Sulfide All‐Solid‐State Batteries

ENERGY &ENVIRONMENTAL MATERIALS, EarlyView.
This work examines formation protocols for stabilizing the cathode–electrolyte interphase (CEI) in sulfide all‐solid‐state batteries, highlighting a special turbo discharging protocol discovery. The methodologies presented here show strong potential for integration into emerging artificial intelligence–driven frameworks. Formation protocols dictate the
Yuanshun Li, Chanho Kim, Justin G. Connell, Jianlin Li, Wenda Wu, Harry M. Meyer III, Inyoung Jang, Thomas A. Zawodzinski, Guang Yang   +8 more
wiley   +1 more source

Microwave-assisted technologies for recycling and regeneration of spent lithium-ion batteries. [PDF]

Front Chem
Wu J, Yang S, Jiang S, Cui H, Fu J, Gu S, Liu Z, Hong M, Liu Y, Liu T.   +9 more
europepmc   +1 more source

Sulfion oxidation assisting self-powered hydrogen production system based on efficient catalysts from spent lithium-ion batteries. [PDF]

Proc Natl Acad Sci U S A, 2023
Wang B, Xiao X, Li J, Zhang M, Jiao M, Zheng Z, Li T, Zhang Q, Zhang X, Zhou G.   +9 more
europepmc   +1 more source

Harnessing Thin‐Film Solid‐State Electrolytes: Enabling Breakthroughs in All‐Solid‐State Batteries

ENERGY &ENVIRONMENTAL MATERIALS, EarlyView.
Schematic illustration highlighting the advantages of transitioning from traditional thick solid‐state electrolytes (SSEs) to thin‐film SSEs. Thinning the electrolyte enables higher ionic conductivity, reduced interfacial polarization, improved flexibility, compact electrode contact, and enhanced energy density, offering a promising pathway toward high‐
Yitao He, Haoyang Cheng, Li Wang, Xiangming He   +3 more
wiley   +1 more source

Effective recycling of spent lithium-ion batteries via radiolytic radical reactions. [PDF]

Nat Commun
Yu H, Hu C, Jiang Z, Zhang H, Ma C, Ma J.   +5 more
europepmc   +1 more source

Recovery of valuable metals from spent lithium-ion batteries using microbial agents for bioleaching: a review. [PDF]

Front Microbiol, 2023
Biswal BK, Balasubramanian R.
europepmc   +1 more source

Drying‐Driven Microstructural Reorganization as a Key Origin of Rate Limitation in Multi‐Walled Carbon Nanotube‐Based Thick Electrodes for Lithium‐Ion Batteries

ENERGY &ENVIRONMENTAL MATERIALS, EarlyView.
This study shows drying‐driven microstructural reorganization as a key origin of rate limitations in multi‐walled carbon nanotubes (MWCNT)‐based thick electrodes. By decoupling transport properties, the work reveals that rapid evaporation can amplify thickness‐dependent CNT agglomeration, generating coupled electronic and ionic bottlenecks. Importantly,
So Min Gong, Seung Woo Song, Yonghwan Kim, Jiyoon Yoon, Jun Hyun Kang, Yeonsu Jung, Taehoon Kim, Seung Jae Yang, Jae Ho Kim   +8 more
wiley   +1 more source

Bioleaching Strategies for Recovering Critical Metals from Spent Lithium-Ion Batteries at High Pulp Density. [PDF]

Molecules
Chen Q, Gu Y.
europepmc   +1 more source