Metal Sulfides as Potential Materials for Next Generation Lithium Ion Batteries: A Review DOI Creative Commons

Muhammad Ali Martuza,

Lutz Mädler, Suman Pokhrel

et al.

Advanced Energy and Sustainability Research, Journal Year: 2025, Volume and Issue: unknown

Published: March 11, 2025

Lithium‐ion batteries (LIBs) are indispensable in modern electronic instruments and electric vehicles because of their high energy density long cycle life. However, the performance traditional LIBs is constrained by limited theoretical specific capacities structural stabilities, failing to meet demands next‐generation high‐performance applications. Transition metal sulfides emerging as promising electrode materials due low cost, capacities, superior intrinsic properties. Compared oxides, exhibit enhanced electrical conductivity, faster ion diffusion, multi‐electron transfer capabilities, which collectively enable higher density, better rate performance, improved cycling stability. Flame spray pyrolysis (FSP) offers a scalable, cost‐effective method for synthesizing functional structured materials. This one‐step process facilitates precise control over particle composition, morphology, enabling complex modifications such doping, homogeneous mixing, coating, noble promotion/functionalization. FSP also produces metastable nanoparticle phases allows direct deposition onto electrodes without binders or solvents, streamlining fabrication. The integration synthesis with production continuous chain holds immense potential large‐scale manufacturing LIB electrodes. approach anticipated revolutionize storage technologies, addressing challenges scalability.

Language: Английский

Metal Sulfides as Potential Materials for Next Generation Lithium Ion Batteries: A Review DOI Creative Commons

Muhammad Ali Martuza,

Lutz Mädler, Suman Pokhrel

et al.

Advanced Energy and Sustainability Research, Journal Year: 2025, Volume and Issue: unknown

Published: March 11, 2025

Lithium‐ion batteries (LIBs) are indispensable in modern electronic instruments and electric vehicles because of their high energy density long cycle life. However, the performance traditional LIBs is constrained by limited theoretical specific capacities structural stabilities, failing to meet demands next‐generation high‐performance applications. Transition metal sulfides emerging as promising electrode materials due low cost, capacities, superior intrinsic properties. Compared oxides, exhibit enhanced electrical conductivity, faster ion diffusion, multi‐electron transfer capabilities, which collectively enable higher density, better rate performance, improved cycling stability. Flame spray pyrolysis (FSP) offers a scalable, cost‐effective method for synthesizing functional structured materials. This one‐step process facilitates precise control over particle composition, morphology, enabling complex modifications such doping, homogeneous mixing, coating, noble promotion/functionalization. FSP also produces metastable nanoparticle phases allows direct deposition onto electrodes without binders or solvents, streamlining fabrication. The integration synthesis with production continuous chain holds immense potential large‐scale manufacturing LIB electrodes. approach anticipated revolutionize storage technologies, addressing challenges scalability.

Language: Английский

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