Due to their unusual features such as planar morphology, catalytic edge effects, and variable bandgap energies, 2D metal oxides and chalcogenides are prime candidates for development in the process of photoelectrochemical water splitting. The incorporation of 2D materials has several benefits, including broadening the wavelength range over which the material absorbs visible light; improving charge carrier separation due to the formation of a favorable interface; dramatically increasing photocurrent; and increasing the stability of metal oxide photoelectrodes. This book investigates the recent advances in the field of metal oxides–chalcogenide hybrids and their application in solar cells. Chapters provide detailed and comprehensive descriptions of the fundamentals, synthesis, characterization, and designs of metal oxides–chalcogenide materials for photoelectrochemical and photoelectrolytic applications. The book is suitable for scientists, engineers, and researchers working in the areas of materials science, nanoscience, and nanotechnology.

Explores the design, synthesis, characterization, and applications of metal oxide–chalcogenide hybrid materials in solar energy conversion technologies

Provides a fundamental understanding of the materials science and engineering aspects behind metal oxide–chalcogenide hybrids, from precursor selection to nanostructuring methods and optimization of methodologies in synthesis and manufacturing processes

Discusses the photophysical features of metal oxide–chalcogenide hybrids, such as band gap engineering, charge carrier dynamics, and light absorption processes

Highlights metal oxide–chalcogenide hybrids in various energy conversion and storage applications, including their real-world applications to contribute to a cleaner energy landscape and reduce the carbon footprint of solar energy generation

...read more