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The energy transition is one of the key approaches in the effort to halt climate changes, and it has become even more essential in the light of the recent COVID-19 pandemic. Fostering the energy efficiency and the energy independence of the building sector is a focal aim to move towards a decarbonized society. In this context, building physics and building energy systems are fundamental disciplines based on applied physics applications in civil, architectural, and environmental engineering, including technical themes related to the planning of energy and the environment, diagnostic methods, and mitigating techniques. This Special Issue contains information on experimental studies in the following research topics: renewable energy sources, building energy analysis, rational use of energy, heat transmission, heating and cooling systems, thermofluid dynamics, smart energy systems, and energy service management in buildings.

Research & information: general --- nanocomposite photocatalyst --- environmental remediation --- selective organic transformation --- hydrogen evolution --- disinfection --- Perovskite solar cell --- PMMA --- carbon quantum dots --- down-conversion --- light harvesting --- dye-guest encapsulation --- zeolite --- microporous aluminophosphates --- one-pot synthesis --- hybrid fluorescent system --- white light emitter --- FRET --- hydrogen generation rate --- porous silicon nanopowder --- nanosilicon oxidation --- engineering of silicon nanoparticles --- van der Waals epitaxy --- Bi2Se3 --- mica --- two-dimensional materials --- optoelectronics --- transparent conductive electrode --- electrospinning --- SrTiO3 --- fibers --- photocatalytic --- water splitting --- bandgap --- hydrogen --- titanium dioxide --- photocatalysis --- photodegradation --- phosphomolybdic acid (PMoA) --- polyaniline (PANI) --- protonation --- photochromism --- nanocomposite thin film --- WO3 --- nanocomposites --- heterostructures --- water-splitting --- oxygen evolution --- n/a

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This book gathers selected research on the preparation, characterization and application of new organic/inorganic composites endowed with photo(electro)catalytic properties for the photocatalytic production of H2. In these pilot studies, the photoactive materials were tested under either UV-visible or, even more conveniently, under visible light for H2 evolution in “sacrificial water splitting” or “photoreforming” systems. In addition, a review article on the use of 2D materials and composites as potential photocatalysts for water splitting is included.

Technology: general issues --- WO3 --- TiO2 --- hydrogen production --- photoelectrocatalysis --- pancake-like porous carbon nitride --- bottom-up method --- water splitting --- visible light photocatalyst --- photocatalyst --- graphene oxide --- phosphorene --- graphitic carbon nitride --- MOFs --- ethanol reforming --- Au catalyst --- Ti3+ defect --- site-specific deposition --- hydrogen --- catalyst --- photocatalysis --- biomass --- solar light --- perovskite --- carbon nitride --- design of experiments --- WO3 --- TiO2 --- hydrogen production --- photoelectrocatalysis --- pancake-like porous carbon nitride --- bottom-up method --- water splitting --- visible light photocatalyst --- photocatalyst --- graphene oxide --- phosphorene --- graphitic carbon nitride --- MOFs --- ethanol reforming --- Au catalyst --- Ti3+ defect --- site-specific deposition --- hydrogen --- catalyst --- photocatalysis --- biomass --- solar light --- perovskite --- carbon nitride --- design of experiments

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Energy crises and global warming pose serious challenges to researchers in their attempt to develop a sustainable society for the future. Solar energy conversion is a remarkable, clean, and sustainable way to nullify the effects of fossil fuels. The findings of photocatalytic hydrogen production (PCHP) by Fujishima and Honda propose that “water will be the coal for the future”. Hydrogen is a carbon-free clean fuel with a high specific energy of combustion. Titanium oxide (TiO2), graphitic-carbon nitride (g-C3N4) and cadmium sulfide (CdS) are three pillars of water splitting photocatalysts owing to their superior electronic and optical properties. Tremendous research efforts have been made in recent years to fabricate visible or solar-light, active photocatalysts. The significant features of various oxide, sulfide, and carbon based photocatalysts for cost-effective hydrogen production are presented in this Special Issue. The insights of sacrificial agents on the hydrogen production efficiency of catalysts are also presented in this issue.

Technology: general issues --- photocatalysis --- H2 generation --- water splitting --- solar energy --- hydrogen production --- methanol photo-splitting --- heterojunction --- CuS@CuGaS2 --- electron-hole recombination --- perovskite oxynitride --- band gap --- density-functional theory --- Niobium(V) oxide --- graphitic carbon nitride --- hydrothermal synthesis --- H2 evolution --- heterostructures --- Z-Scheme --- TiO2 --- g-C3N4 --- CdS --- energy --- spherical particle --- disordered surface --- photocatalysts --- MoS2 --- MoSe2 --- photoelectrochemical deposition --- rapid-thermal annealing --- hydrogen evolution --- CO2 reduction --- n/a

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Energy crises and global warming pose serious challenges to researchers in their attempt to develop a sustainable society for the future. Solar energy conversion is a remarkable, clean, and sustainable way to nullify the effects of fossil fuels. The findings of photocatalytic hydrogen production (PCHP) by Fujishima and Honda propose that “water will be the coal for the future”. Hydrogen is a carbon-free clean fuel with a high specific energy of combustion. Titanium oxide (TiO2), graphitic-carbon nitride (g-C3N4) and cadmium sulfide (CdS) are three pillars of water splitting photocatalysts owing to their superior electronic and optical properties. Tremendous research efforts have been made in recent years to fabricate visible or solar-light, active photocatalysts. The significant features of various oxide, sulfide, and carbon based photocatalysts for cost-effective hydrogen production are presented in this Special Issue. The insights of sacrificial agents on the hydrogen production efficiency of catalysts are also presented in this issue.

photocatalysis --- H2 generation --- water splitting --- solar energy --- hydrogen production --- methanol photo-splitting --- heterojunction --- CuS@CuGaS2 --- electron-hole recombination --- perovskite oxynitride --- band gap --- density-functional theory --- Niobium(V) oxide --- graphitic carbon nitride --- hydrothermal synthesis --- H2 evolution --- heterostructures --- Z-Scheme --- TiO2 --- g-C3N4 --- CdS --- energy --- spherical particle --- disordered surface --- photocatalysts --- MoS2 --- MoSe2 --- photoelectrochemical deposition --- rapid-thermal annealing --- hydrogen evolution --- CO2 reduction --- n/a

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

Energy crises and global warming pose serious challenges to researchers in their attempt to develop a sustainable society for the future. Solar energy conversion is a remarkable, clean, and sustainable way to nullify the effects of fossil fuels. The findings of photocatalytic hydrogen production (PCHP) by Fujishima and Honda propose that “water will be the coal for the future”. Hydrogen is a carbon-free clean fuel with a high specific energy of combustion. Titanium oxide (TiO2), graphitic-carbon nitride (g-C3N4) and cadmium sulfide (CdS) are three pillars of water splitting photocatalysts owing to their superior electronic and optical properties. Tremendous research efforts have been made in recent years to fabricate visible or solar-light, active photocatalysts. The significant features of various oxide, sulfide, and carbon based photocatalysts for cost-effective hydrogen production are presented in this Special Issue. The insights of sacrificial agents on the hydrogen production efficiency of catalysts are also presented in this issue.

Technology: general issues --- photocatalysis --- H2 generation --- water splitting --- solar energy --- hydrogen production --- methanol photo-splitting --- heterojunction --- CuS@CuGaS2 --- electron-hole recombination --- perovskite oxynitride --- band gap --- density-functional theory --- Niobium(V) oxide --- graphitic carbon nitride --- hydrothermal synthesis --- H2 evolution --- heterostructures --- Z-Scheme --- TiO2 --- g-C3N4 --- CdS --- energy --- spherical particle --- disordered surface --- photocatalysts --- MoS2 --- MoSe2 --- photoelectrochemical deposition --- rapid-thermal annealing --- hydrogen evolution --- CO2 reduction --- photocatalysis --- H2 generation --- water splitting --- solar energy --- hydrogen production --- methanol photo-splitting --- heterojunction --- CuS@CuGaS2 --- electron-hole recombination --- perovskite oxynitride --- band gap --- density-functional theory --- Niobium(V) oxide --- graphitic carbon nitride --- hydrothermal synthesis --- H2 evolution --- heterostructures --- Z-Scheme --- TiO2 --- g-C3N4 --- CdS --- energy --- spherical particle --- disordered surface --- photocatalysts --- MoS2 --- MoSe2 --- photoelectrochemical deposition --- rapid-thermal annealing --- hydrogen evolution --- CO2 reduction