Bioelectrochemistry, Journal Year: 2024, Volume and Issue: 163, P. 108884 - 108884
Published: Dec. 11, 2024
Language: Английский
Bioelectrochemistry, Journal Year: 2024, Volume and Issue: 163, P. 108884 - 108884
Published: Dec. 11, 2024
Language: Английский
Nano Energy, Journal Year: 2025, Volume and Issue: unknown, P. 110973 - 110973
Published: April 1, 2025
Language: Английский
Citations
0Nano-Micro Letters, Journal Year: 2025, Volume and Issue: 17(1)
Published: April 10, 2025
Abstract Lithium–sulfur batteries (LSBs) hold significant promise as advanced energy storage systems due to their high density, low cost, and environmental advantages. However, despite recent advancements, practical density still falls short of the levels required for commercial viability. The is critically dependent on both sulfur loading amount electrolyte used. High-sulfur coupled with lean conditions presents several challenges, including insulating nature Li 2 S, insufficient absorption, degradation cathode structure, severe lithium polysulfide shuttling, slow redox reaction kinetics, instability metal anode. MXenes-based materials, metallic conductivity, large polar surfaces, abundant active sites, have been identified promising electrocatalysts improve reactions in LSBs. This review focuses significance challenges associated high-sulfur electrolytes LSBs, highlighting advancements aimed at optimizing cathodes anodes. It provides a comprehensive discussion MXenes materials substrates goal enhancing understanding regulatory mechanisms that govern conversion plating/stripping behavior. Finally, explores future opportunities electrocatalysts, paving way application
Language: Английский
Citations
0Advanced Functional Materials, Journal Year: 2025, Volume and Issue: unknown
Published: April 24, 2025
Abstract Involving electrocatalysts to increase the sluggish reduction reaction kinetics of soluble lithium polysulfides is evidenced effective in inhibiting shuttle effect and enhancing cycle stability Li─S batteries. In this work, phosphorus‐coordinated single Fe atoms (FePC) are synthesized based on coordination environment modulation strategy. Combining with experimental theoretical methods, well‐designed FePC plane‐symmetric Fe─P 4 ─C configuration exhibits strengthened catalytic toward reversible conversion between LiPS Li 2 S, that endows S@FePC cathodes superior electrochemical performance. The prepared coin cells achieve prolonged cyclic over 1000 cycles at 1C a high capacity retention 77.8%. Even sulfur loading (5.7 mg cm −2 ) low E/S ratio (6.2 µL S −1 ), areal reached 6.0 mAh 88.3% it retained after 100 0.1 C. Moreover, 0.6 Ah pouch cell higher 76.3% C compared S@FeNC. Meanwhile, 8Ah approaches specific energy 401 Wh kg proving its practicability. obtained outcomes may guide future design development SACs activity for practical
Language: Английский
Citations
0Journal of Energy Chemistry, Journal Year: 2024, Volume and Issue: unknown
Published: Sept. 1, 2024
Language: Английский
Citations
3Energy & Fuels, Journal Year: 2024, Volume and Issue: 38(20), P. 19174 - 19187
Published: Oct. 2, 2024
Language: Английский
Citations
3Chemical Engineering Journal, Journal Year: 2024, Volume and Issue: unknown, P. 157926 - 157926
Published: Nov. 1, 2024
Language: Английский
Citations
2Journal of Energy Storage, Journal Year: 2024, Volume and Issue: 109, P. 115126 - 115126
Published: Dec. 27, 2024
Language: Английский
Citations
2Science China Chemistry, Journal Year: 2024, Volume and Issue: unknown
Published: Sept. 4, 2024
Language: Английский
Citations
1Applied Surface Science, Journal Year: 2024, Volume and Issue: unknown, P. 161401 - 161401
Published: Oct. 1, 2024
Language: Английский
Citations
1Advanced Energy Materials, Journal Year: 2024, Volume and Issue: unknown
Published: Dec. 20, 2024
Abstract The ambitious pursuit of carbon neutrality underscores the pressing demand for closed‐loop recycling lithium‐ion batteries (LIBs), amid escalating production and disposal challenges. Direct battery material recycling, emphasizing rejuvenation degraded materials, stands out as an environmentally benign alternative to conventional pyro‐ hydro‐metallurgical processes that are intrinsically destructive. In addition, given surface, interface, interphase major failure mechanisms in rapid heating technology (RHT) emerges a promising direct method, harnessing its distinctive kinetics thermodynamics trigger highly time‐ energy‐efficient, precisely defect‐ interface‐targeted approach revitalize materials. This review summarizes recent advancements RHT‐based LIB strategies, focusing on active materials recovery, efficient regeneration, reutilization, with emphasis expedited locally confined chemical reactions at interfaces. It also outlines perspectives future directions by need re‐manufactured meet increasing application demands. comprehensive aims guide upcycling spent LIBs toward green sustainable economy.
Language: Английский
Citations
1