ABSTRACT Aqueous polysulfide‐based redox flow batteries are promising for large‐scale energy storage, yet their practical application is severely hindered by sluggish polysulfide conversion kinetics and the accumulation of intermediate species. Herein, we propose an orbital‐regulated stepwise catalytic strategy based on d‐electron complementarity and construct a NiS/MnS heteros…

ADVANCED ENERGY MATERIALS
WILEY-V C H VERLAG GMBH
Papers in this journal
All search filtersABSTRACT Solid electrolytes (SE) such as Li 6.5 La 3 Zr 1.5 Ta 0.5 O 12 (LLZTO) have the potential to enable the production of safe, high‐capacity lithium (Li) metal batteries, but remain vulnerable to Li filaments. Applying in‐plane residual compressive stress to suppress these dendrites provides a possible solution. Herein, we quantify the effectiveness of comp…
ABSTRACT High‐voltage lithium‐metal batteries are pivotal for increasing energy density but suffer from aluminum (Al) current collector corrosion. While the native Al 2 O 3 layer provides thermodynamic stability, corrosion persists through electric‐field‐driven Al 3+ migration. Guided by P. Marcus theory, we identify that the total potential drop across the Al/Al 2 …
ABSTRACT Solid oxide electrolysis cells (SOECs) hold significant potential for efficient, high‑rate conversion of CO 2 and H 2 O into syngas driven by renewable electricity. However, SOEC performance is often constrained by the scarcity of fuel electrode materials that combine high activity with structural stability for CO 2 and H 2 O electrochemical reduction. Here…
ABSTRACT Porous‐carbon‐based hard carbons have attracted widespread attention as anodes for sodium‐ion batteries owing to the high plateau capacity; however, their practical application is constrained by an intrinsic trade‐off: constructing abundant closed pores enhances capacity but impedes charge transport and compromises structural stability. Herein, we introduce a solvent‐m…
ABSTRACT Solid polymer electrolytes are promising for high‐energy‐density alkali metal batteries but are hindered by excessive thickness, insufficient interfacial contact, and uncontrolled dendrite growth. Herein, we introduce a scalable in situ polymerization strategy to fabricate ultrathin (∼10 µm) yet robust solid‐like polymer electrolytes (SPE‐Na and SPE‐Li) that simultaneo…
ABSTRACT The development of efficient and durable platinum‐free electrocatalysts for the hydrogen evolution reaction (HER) is crucial for advancing anion exchange membrane water electrolyzer (AEMWE) powered by intermittent renewable energy. Herein, we report ultra‐stable sub‐1 nm Ru‐based high‐entropy clusters embedded on oxyphilic cerium oxide for alkaline HER, which achieves …
ABSTRACT RuO 2 is a promising anode catalyst for PEMWE but suffers rapid degradation at ampere‐level current densities. Previous studies have linked the instability of ruthenium‐based catalysts to excessive Ru─O covalency, yet the mechanism governing this covalency remains unclear. Here, we introduce isovalent metals (M: Ti 4+ /Hf 4+ ) to modulate the Ru─O bond strengt…
ABSTRACT This study presents a novel electrochemical hydrogenation (EH‐DPM) system that integrates clean hydrogen production and storage by utilizing a diphenylmethane (H0‐DPM, DPM) /dicyclohexylmethane (H12‐DPM, DCM) pair as a liquid organic hydrogen carrier (LOHC). The system operates in a full‐cell configuration, coupling a cathode for the electrochemical hydrogenation of H0…
ABSTRACT Electrocatalytic C─N coupling offers a promising route for sustainable oxime synthesis, yet it suffers from mismatched reaction kinetics and mass transport limitations. Herein, we report a pulsed electrolysis strategy for cyclohexanone oxime (CHOX) synthesis from nitrate (NO 3 − ) and cyclohexanol (C 6 H 12 O). CuCe‐cMOF is designed and used as a model cata…
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ABSTRACT Employing organic semiconductors (OSs) for photoelectrochemical (PEC) solar‐driven water splitting represents a promising route for sustainable hydrogen production; however, OS‐based photoanodes remain limited by poor stability for the PEC oxygen evolution reaction. Here, a bilayer heterojunction (BiHJ) architecture, obtained through orthogonal solution processing of t…
ABSTRACT Balancing high catalytic activity with long‐term electrochemical durability remains a significant challenge for practical green hydrogen production, especially under the harsh operating conditions of water electrolysis. Here, we report a robust three‐dimensional core‐shell nanoporous electrocatalyst with a noble metal (NM) skin, synthesized via a two‐step dealloying st…
ABSTRACT The structural and compositional heterogeneity at electrolyte/electrode interfaces critically determines the functionality, performance, and stability of modern Li‐ion batteries. However, atomic‐scale characterization remains challenging due to the high degree of disorder, spatial confinement, and dynamic evolution of these interfaces, leaving their role in Li‐ion tran…
ABSTRACT When CO 2 undergoes a two‐electron partial reduction during the discharging process of Li‐CO 2 batteries, it produces thermodynamically active Li 2 C 2 O 4 , which readily decomposes during subsequent charging. This offers a promising opportunity to mitigate the large charging overpotential and enhance the battery's cycling stability. However, as an inte…
ABSTRACT The photocatalytic conversion of CO 2 into value‐added fuels offers a sustainable route to mitigate carbon emissions while storing solar energy. Lead‐free halide perovskites have recently emerged as promising photocatalysts due to their highly tunable electronic structures and strong light‐harvesting capabilities. However, their performance is often limited by ineff…
ABSTRACT The large‐scale deployment of redox flow batteries (RFBs) remains constrained by sluggish catalytic kinetics within carbon felt electrodes, causing severe polarization losses. Addressing this necessitates system‐specific electrode activation strategies tailored to the distinct mechanisms of various redox couples. This review systematically analyzes catalyst modificatio…
ABSTRACT The pseudocapacitive performance of MoS 2 is intrinsically hampered by its poor electronic conductivity and inert basal planes, primarily arising from weak Mo 4 d –S 3 p orbital hybridization. Herein, we present a dual‐confinement strategy that simultaneously modulates orbital hybridization via lattice‐confined Mn doping and interlayer‐confined ethylene glycol (EG),…
ABSTRACT Advancement of flexible, high‐capacity energy storage systems is vital for next‐generation wearable electronics. Cotton cloth with its intrinsic flexibility, porosity, & electrolyte absorption ability, offers an ideal platform, but its insulating nature necessitates functional enhancement. Herein, we report a dual‐function, conductive textile electrode (NiP@Ni/NiB‐CC) …
ABSTRACT High‐efficiency all‐perovskite tandem solar cells are severely constrained by narrow‐bandgap Sn‐Pb subcells, which confront an inherent contradictory bottleneck: Sn 2+ ‐rich precursors undergo fast, unregulated crystallization during blade coating, yet Sn 2+ cations are easily oxidized to harmful Sn 4+ under ambient conditions. Conventional single additive mat…