Results 151 to 160 of about 125,749 (268)

Lithium-Rich Transition Metal Oxides as Positive Electrode Materials in Lithium-Ion Batteries

, 2010
Lithium-rich transition metal oxides are candidates for the next-generation lithium-ion battery positive electrode materials. They have a much higher first charge and low-rate cycling capacity compared to non-lithium rich transition metal oxides.
van Bommel, Andrew
core  

Sustainable Materials Design With Multi‐Modal Artificial Intelligence

Advanced Science, EarlyView.
Critical mineral scarcity, high embodied carbon, and persistent pollution from materials processing intensify the need for sustainable materials design. This review frames the problem as multi‐objective optimization under heterogeneous, high‐dimensional evidence and highlights multi‐modal AI as an enabling pathway.
Tianyi Xu, Tianshuo Wei, Yan Ge, Bo Peng, Yue Li, Maolin Wang, Peng Wen, Chao Yang, Ye Wei   +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

Fluoride solvation-the case of the missing ion

, 1991
The thermodynamics of fluoride ion solvation in nonaqueous and mixed aqueous solvents are reviewed. Gibbs energies of transfer , ∆tG⁰ (F -) H20-s , indicate that the solvation of the fluoride ion is dominated by hydrogen bonding.
Hefter, G.T.
core  

A Triple‐Nanoparticle System for Controlled Graphene Nanosheet Stacking: Enabling K/Na‐Ion Battery Anodes with Ultra‐Fast Charging Exceeding Petroleum Vehicle Refueling

Advanced Science, EarlyView.
ABSTRACT Large‐ion (K, Na) battery systems mitigate uneven global lithium distribution, while their ability to attain recharge time shorter than refueling would remove the final barrier for secondary batteries to replace petroleum vehicles. However, their large‐ion chemistry makes ultra‐fast charging an even significant challenge.
Shukai Ding, Le Zhang, Hang Li, Yang Zhang, Guoquan Suo, Bin Han, Dongfeng Sun, Wenqi Zhao, Gaohui Du, Qingmei Su, Bingshe Xu, Zhen Xu, Wei Wang   +12 more
wiley   +1 more source

Toward Real-Life Applications of Fiber Lithium-Ion Batteries. [PDF]

Small
Wei M, He N, Kim S, Lee A, Gao W.
europepmc   +1 more source

Numerical study of a novel jet-grid approach for Li-ion batteries cooling

Climate change is driving new and more efficient ways of producing and storing energy. In particular, Lithium-ion batteries demonstrate to be a worthwhile storage system for their high specific power and energy density.
Elie Solai, Sofiane Khelladi, SOLAI, Elie, CAPURSO, Tommaso, KHELLADI, Sofiane, Tommaso Capurso   +5 more
core   +1 more source

Carbon Interlayer with Uniformly Anchored ZnO Nanoparticles: Surface‐Energy‐Driven Coble Creep for Practical Anode‐Free Solid‐State Batteries

Advanced Science, EarlyView.
We used a zinc oxide–carbon composite interlayer (ZnO@C) via the electron‐beam (e‐beam) irradiation method to fabricate a cost‐effective, high‐energy‐density, anode‐free solid‐state battery. Chemical anchoring between the ZnO and carbon enabled uniform nanoscale morphology, mitigating the high surface energy of the ZnO NPs.
Joonhyeok Park, Jeongheon Kim, Seungwoo Lee, Jaeik Kim, Il Woo Ock, Seunggun Choi, Jooheon Sun, Gunwoo Cha, Seungmin Han, Hyungjun Lee, Jun Lim, Hyun‐Suk Kang, Jiung Cho, Jong Sung Jin, Seho Sun, Ungyu Paik, Taeseup Song   +16 more
wiley   +1 more source

Composite Electrolytes for Non-Lithium-Ion Batteries. [PDF]

Polymers (Basel)
Qu Q, Liu L, Fu L, Chen X, Wu Y, Holze R.   +5 more
europepmc   +1 more source

Mesoporous Lithium Titanate-Carbon Composite (Li4Ti5O12-Carbon) with Controlled Microstructure As Anode in Lithium Ion Batteries for Wide Temperature Range

, 2014
The high discharge rate performance of lithium titanate (Li4Ti5O12) is limited by the low electronic conductivity of the material (< 10-11 Sm-1), addition of carbon is one of the effective way in enhancing the rate performance.
Yung, H, Li, CYV, Ho, CK, Chan, GKY
core