At the forefront of contemporary energy chemistry and materials science, the “liquid sunlight” project—efficiently converting solar energy into chemical energy—has become the ultimate goal for scientists. To accurate
In the grand vision of green chemistry, the search for chemical transformation methods that can replace traditional high-energy and high-pollution processes has long been a central theme in scientific research. Photothermal-catalyzed liquid
In the grand context of addressing the global energy crisis and climate change, the photoelectrocatalytic technology that uses solar energy to drive water splitting presents an ideal blueprint for converting intermittent energy into stable
In the grand vision of green chemistry, the pursuit of alternatives to traditional high-energy, high-pollution chemical transformations remains an enduring theme in the scientific community. Photothermal catalytic liquid-phase oxidation, as
On humanity’s long journey to address global climate change and achieve the vision of “carbon neutrality,” efficiently capturing and storing solar energy has always been a central challenge. For a long time, photocatalysis
In the global pursuit of energy decarbonization and the vision of “carbon neutrality,” the technology of using solar energy to drive water splitting for hydrogen production shows immense application potential. This process is vi
In humanity’s grand pursuit of energy independence and low-carbon transformation, hydrogen, with its extremely high energy density and zero terminal emissions, is widely recognized as a core medium connecting green energy with sustain
In humanity’s pursuit of sustainable energy conversion, catalysis has always been the core engine. Traditional chemical reactions typically rely on two extreme pathways: thermal catalysis provides energy to overcome thermodynamic barr
In the long quest for alternatives to fossil fuels, hydrogen has consistently been regarded as a key component in the clean energy landscape due to its high energy efficiency and environmental friendliness. Unlike conventional hydrogen prod
In humanity's pursuit of green hydrogen and the vision of carbon neutrality, research on artificial photosynthesis simulating natural sunlight is advancing at an unprecedented pace. Whether screening milligram-scale materials in the lab
From a fundamental mechanistic perspective, the core of the water-splitting reaction lies in using semiconductor materials to capture incident photons. When the photon energy exceeds the material's bandgap, the generated photogenerated
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