ROYAL SOC CHEMISTRY
The selective electrosynthesis of hydroperoxide ion (HO 2 − ) via the two-electron oxygen reduction reaction (2e − ORR) in alkaline media represents a sustainable alternative for advanced oxidation processes. Herein, we demonstrate how...
Stabilizing isolated metal atoms on sustainable, and porous matrices is a challenging strategy with the potential to maximize the density of active sites and prevent agglomeration. In this study is...
Abstract not available. Bibliographic information is searchable.
Abstract not available. Bibliographic information is searchable.
The overall energy efficiency of several electrochemical devices depends on the electrocatalytic overpotential consumed by the kinetically uphill anodic oxygen evolution reaction (OER), thus driving the pursuit for non-noble OER...
In this study, we developed a novel type of nanocomposite based on Tb2TiO5-TiO2-Tb2O3 (TTO) and FeCoS2/g-C3N4 (FCS/CN) as promising electrode in electrochemical hydrogen storage application. The TTO-based electrode materials were...
Biomass-derived FeNiNC catalyst enhances OER/ORR activity, improving energy efficiency in seawater batteries.
This review explores high-entropy alloys for solar interfacial evaporation, focusing on entropy-driven photothermal tuning and defect engineering. Future directions in enthalpy control and salt-rejection strategies are outlined for rational design.
Electrochemical CO₂ reduction (ECO₂RR), particularly when powered by renewable energy, represents a promising route for CO₂ utilization. Realworld implementation of ECO₂RR, however, hinges on the development of efficient, selective, stable,...
Abstract not available. Bibliographic information is searchable.
Traditional battery modeling relies on laboratory tests like Hybrid Pulse Power Characteristic (HPPC) for parameter data, which is time-consuming and cannot utilize real-world operational data. This paper proposes a novel...
A waste PET-derived NiCoP anchored on a layered Ti 3 C 2 MXene heterostructure promotes rapid interfacial charge transfer and abundant active sites, enabling highly efficient and durable overall water splitting.
A one-step CVD-GR strategy prepared a PdCo/βz-NCNT catalyst. The large surface area, conductive NCNT network, and Pd → Co electron transfer create an electron-deficient Pd state, enhancing reactant adsorption and dehydrogenation.
A robust plastic chip electrode (PCE) serves as a versatile platform for hydrogen evolution, CO 2 reduction, and diverse electrochemical applications, offering high conductivity, chemical stability, corrosion resistance, and long-term durability.
An improved adaptive snake optimization-tuned rule-based energy management strategy is proposed for 49-ton hydrogen fuel cell heavy-duty trucks, achieving 7.51 and 7.21 kg/100 km on-road hydrogen consumption and stable fuel cell output.
A cradle-to-use life cycle assessment comparing AEMFC and PEMFC systems that reveals key environmental trade-offs between precious- and non-precious-metal catalysts and identifies priority areas for improvement.
Ar-mediated autogenic pressure pyrolysis upcycles polyurethane into heteroatom-doped carbon with optimized structure and enhanced lithium storage performance.
This study presents a thermodynamic analysis of CO 2 hydrogenation and CO 2 –CH 4 coupling for organic acid production, identifying optimal conditions, equilibrium limits, key challenges, and insights to advance sustainable catalysis.
A viable method for transforming CO 2 into useful compounds that promote renewable energy and environmental sustainability is the CO 2 reduction reaction (CO 2 RR).
The CuSe 2 secondary phase formation in Ge substituted Cu 2 SnSe 3 , significantly improves the power factor to 284 µW m −1 K −2 and reducing the lattice thermal conductivity to 0.58 W m −1 K −1 , resulting an enhanced zT of 0.31 at 653 K for Cu 2 Sn 0.3 Ge 0.7 Se 3 .