Suchergebnisse - "superionic conductors"

An atomic cluster expansion (ACE) potential for water under extreme conditions.

Autoren: Willman, Jonathan T. Perriot, Romain Ticknor, Christopher

Quelle: Journal of Chemical Physics. 11/28/2025, Vol. 163 Issue 20, p1-9. 9p.

Schlagwörter: *ATOMIC clusters, *SUPERIONIC conductors, *THERMODYNAMICS, *MOLECULAR dynamics, *ATMOSPHERIC temperature

Antiperovskite materials: advances in synthesis, unique properties, and emerging applications in energy and electronics.

Autoren: Elseman, A. M. Ali, F. A. Ewais, E. et al.

Quelle: Critical Reviews in Solid State & Materials Science. 2025, Vol. 50 Issue 5, p539-567. 29p.

Schlagwörter: *ENERGY consumption, *PRODUCT attributes, SUPERIONIC conductors, SUPERCONDUCTIVITY, POWER electronics, CHEMICAL synthesis, MAGNETORESISTANCE, PEROVSKITE analysis

High ɛ dielectric BaTiO3- La0.6Sr0.4Co0.8Fe0.2O3 heterostructure electrolyte for superionic conduction in proton ceramic fuel cells.

Autoren: Akbar, Nabeela Yousaf Shah, M.A.K. Zhu, Bin et al.

Quelle: Ceramics International. Nov2025:Part A, Vol. 51 Issue 28, p56618-56628. 11p.

Schlagwörter: *BARIUM titanate, *SUPERIONIC conductors, *IONIC conductivity, *SOLID oxide fuel cells, *DIELECTRIC materials, *FUEL cells

Direct Lithium Harvesting via Superionic Conductor Membranes.

Autoren: Zhang, Qianxi Wang, Qiuyue Wang, Zhouyou et al.

Quelle: Advanced Functional Materials. Nov2025, p1. 22p. 13 Illustrations.

Schlagwörter: *LITHIUM, *SUPERIONIC conductors, *IONIC conductivity, *ION exchange (Chemistry), *LITHIUM mining, *BIOLOGICAL membranes, *LITHIUM ions, *SOLID state batteries

Colossal Barocaloric Strength in Plastic Ag2Te1‐xSx with High Density.

Autoren: Liu, Keke Zhang, Xuekai Shi, Guoyou et al.

Quelle: Advanced Functional Materials. Nov2025, p1. 9p. 7 Illustrations.

Schlagwörter: *SUPERIONIC conductors, *REFRIGERATION & refrigerating machinery, *SOLIDS, *PHASE transitions, *ENERGY conservation, *CONDENSATION, *HEAT exchangers

A Topology‐Based Site‐to‐Site Jump Detection Method to Unlock Correlated Transport Mechanism in Superionic Conductors.

Autoren: He, Bing Hu, Shaoying Zou, Zheyi et al.

Quelle: Advanced Theory & Simulations. Nov2025, Vol. 8 Issue 11, p1-13. 13p.

Schlagwörter: *SUPERIONIC conductors, *IONIC conductivity, *MOLECULAR dynamics, *DISCRETIZATION methods

Atomic‐Level Dual‐Cation Engineering Enables High‐Performance Na4VMn(PO4)3 Cathodes for Sodium‐Ion Batteries.

Autoren: Sun, Jiaze Hu, Xiaoyu Meng, Xianhe et al.

Quelle: Advanced Functional Materials. Oct2025, p1. 16p. 9 Illustrations.

Schlagwörter: *CATHODES, *SUPERIONIC conductors, *MONOVALENT cations, *ELECTRIC batteries, *CATHODE efficiency, *ION transport (Biology)

Anion sublattice design enables superionic conductivity in crystalline oxyhalides.

Autoren: Zhao, Feipeng Zhang, Shumin Wang, Shuo et al.

Quelle: Science. 10/9/2025, Vol. 390 Issue 6769, p199-204. 6p.

Schlagwörter: *ANIONS, *CONDUCTIVITY of superionic conductors, *ENERGY storage, *SOLID electrolytes, *ELECTROCHEMISTRY, *IONIC conductivity

Rapid Mechanochemical Synthesis of Oxyhalide Superionic Conductor: Time‐Resolved Structural Evolution.

Autoren: Butenko, Denys Tseng, Jo‐chi Zhang, Xinyu et al.

Quelle: Small Methods. Oct2025, p1. 14p. 6 Illustrations.

Schlagwörter: *SOLID electrolytes, *SUPERIONIC conductors, *SOLID state batteries, *CHEMICAL synthesis, *TIME-resolved measurements, *COMMERCIALIZATION, *IONIC conductivity

Colloidal Hot‐Injection Synthesis of CuBSe2 Nanocrystals: Tetragonal Chalcogenide Templates for Superionic Lithiation Pathways.

Autoren: Xu, Yunhao Powar, Niket Zervos, Kelly et al.

Quelle: Small Structures. Oct2025, Vol. 6 Issue 10, p1-11. 11p.

Schlagwörter: *LITHIATION, *SUPERIONIC conductors, *COLLOID synthesis, *SOLID electrolytes, *COPPER indium selenide, *PHASE transitions, *NANOCRYSTALS, *IONIC mobility

Formation of defects in garnet-type solid-state electrolyte Li7La3Zr2O12.

Autoren: Yadav, Trivanni Wang, Sanwu

Quelle: Journal of Applied Physics; 7/7/2025, Vol. 138 Issue 1, p1-10, 10p

Schlagwörter: IONIC conductivity, SOLID state batteries, DENSITY functional theory, SOLID electrolytes, THERMODYNAMICS, ENERGY storage, SUPERIONIC conductors

Recent Advances in Lithium Resource Extraction Utilizing Oxide‐Based Lithium Superionic Conductors.

Autoren: Xiao, Nan Fu, Rongfang Li, Bingqin et al.

Quelle: Advanced Functional Materials. Sep2025, p1. 23p. 19 Illustrations.

Schlagwörter: *LITHIUM-ion batteries, *SUPERIONIC conductors, *OXIDE ceramics, *MARINE resources, *LITHIUM industry, *WASTE recycling, *SEPARATION (Technology), *MATERIALS science

Identifying Novel Lithium Superionic Conductors Using a High‐Throughput Screening Model Based on Structural Parameters.

Autoren: Xiao, Bo Zhang, Xiaohan Xu, Liangliang et al.

Quelle: Advanced Functional Materials. 9/11/2025, Vol. 35 Issue 37, p1-12. 12p.

Schlagwörter: *LITHIUM, *SUPERIONIC conductors, *MATERIALS analysis, *MOLECULAR dynamics, *ELECTROLYTES, *SOLID state batteries, *IONIC conductivity

Ion and Solvent Dynamics in Charged 2D Clay Nanoslits with Unprecedented Ångström‐Precise Slit Height Control.

Autoren: Stevenson, Max Pappler, Sandra Kanzler, Leonie et al.

Quelle: Advanced Functional Materials. Aug2025, p1. 13p. 8 Illustrations.

Schlagwörter: *ION flow dynamics, *SUPERIONIC conductors, *ATOMIC force microscopy, *NANOSTRUCTURES, *MOLECULAR dynamics, *FLUID dynamics, *ELECTROCHEMICAL apparatus

Standard Li⁺/Li redox potential at the Li/amorphous-Li3PO4 interface probed by photoelectron spectroscopy for all-solid-state (photo)electrochemical systems.

Autoren: Watanabe, Kenta Kawai, Sayato Shimizu, Keisuke et al.

Quelle: Applied Physics Letters. 8/25/2025, Vol. 127 Issue 8, p1-6. 6p.

Schlagwörter: *SUPERIONIC conductors, *LITHIUM-ion batteries, *PHOTOELECTRON spectroscopy, *OXIDATION-reduction reaction, *PHOTOELECTROCHEMISTRY, *SOLID electrolytes

Elevating the Li–Mg Separation Performance of LATP Solid Superionic with Enhanced Local Positive Charge Density.

Autoren: Li, Bingqin Jiang, Liangxing Xiao, Nan et al.

Quelle: Advanced Functional Materials. 8/22/2025, Vol. 35 Issue 34, p1-10. 10p.

Schlagwörter: *SUPERIONIC conductors, *CARRIER density, *LITHIUM cells, *DOPING agents (Chemistry), *WATER chemistry, *LITHIUM industry

Starch Acetate Grafted to MXene Composite Surpasses Room Temperature Liquid Electrolyte Performance for All‐Solid‐State Lithium‐Ion Batteries.

Autoren: Hadad, Saeed Hamrahjoo, Mahtab Khezraqa, Homayun et al.

Quelle: Advanced Science. 8/7/2025, Vol. 12 Issue 29, p1-13. 13p.

Schlagwörter: *LITHIUM-ion batteries, *SUPERIONIC conductors, *ELECTRIC vehicle industry, *ELECTROCHEMICAL analysis, *POLYELECTROLYTES, *BIOPOLYMERS, *COMPOSITE materials

Chemical Bond Covalency in Superionic Halide Solid‐State Electrolytes.

Autoren: Fu, Jiamin Su, Han Luo, Jing et al.

Quelle: Angewandte Chemie. 8/4/2025, Vol. 137 Issue 32, p1-10. 10p.

Schlagwörter: *CHEMICAL bonds, *SUPERIONIC conductors, *ION transport (Biology), *MOLECULAR dynamics, *LITHIUM-ion batteries, *SOLID electrolytes, *IONIC conductivity

High throughput screening of high entropy spinel electrolytes for multivalent batteries.

Autoren: Dheerasinghe, Mahesh J. Gan, Yi Wang, Lin et al.

Quelle: Chemical Communications. 8/4/2025, Vol. 61 Issue 60, p11199-11202. 4p.

Schlagwörter: *SUPERIONIC conductors, *ENTROPY, *CHEMICAL synthesis

Sodium‐Ion Pump Enhanced Composite Sodium Anode Toward Fast‐Charging and Practical N/P Ratio Solid‐State Sodium Metal Batteries.

Autoren: Chen, Jiayu Dai, Zhongqin Chen, Huan et al.

Quelle: Advanced Energy Materials. 8/5/2025, Vol. 15 Issue 29, p1-12. 12p.

Schlagwörter: *SUPERIONIC conductors, *SOLID state batteries, *FAST ions, *SODIUM channels