Themed collection Solar Fuels for a Sustainable Energy Future

6 items
Open Access Review Article

Atomic-level engineering of single-atom catalysts for selective C–C coupling in CO2 hydrogenation to ethanol

This review explores single-atom catalysts for CO2-to-ethanol conversion, focusing on atomic-level design principles that enhance C–C coupling selectivity and activity to enable sustainable carbon utilization and renewable fuel production.

Graphical abstract: Atomic-level engineering of single-atom catalysts for selective C–C coupling in CO2 hydrogenation to ethanol
Open Access Accepted Manuscript - Review Article

Near-infrared driven semiconductor-based photocatalysis for energy and environmental applications: mechanism, material, and device

From the themed collection: Solar Fuels for a Sustainable Energy Future
Open Access Review Article

Alkali metal-doped g-C3N4: a multifunctional photocatalytic platform for solar-induced energy conversion and environmental restoration

This TOC depicts an alkali metal-doped g-C3N4 photocatalyst with tailored structural and optoelectronic properties for efficient solar fuel production, organic transformation, and environmental remediation.

Graphical abstract: Alkali metal-doped g-C3N4: a multifunctional photocatalytic platform for solar-induced energy conversion and environmental restoration
From the themed collection: Solar Fuels for a Sustainable Energy Future
Open Access Edge Article

Photocatalytic CO2 reduction using a diazabenzacenaphthenium photosensitizer and a Mn catalyst

A non-TADF photosensitizer (N-BAP+) is employed for photocatalytic CO2 reduction in combination with a Mn catalyst.

Graphical abstract: Photocatalytic CO2 reduction using a diazabenzacenaphthenium photosensitizer and a Mn catalyst
From the themed collection: Solar Fuels for a Sustainable Energy Future
Open Access Paper

Chemical maximum-power-point tracking system for stabilized liquid solar-fuel production

Autonomous solar-to-fuel converter: a chemical MPPT system, integrated directly into the electrolyzer, to enable stand-alone and unmanned liquid solar-fuel production with stabilized concentration changes from sunrise to sunset.

Graphical abstract: Chemical maximum-power-point tracking system for stabilized liquid solar-fuel production
From the themed collection: Solar Fuels for a Sustainable Energy Future
Open Access Paper

Highly active Cu-freudenbergite/TiO2 heterojunction for solar-driven hydrogen evolution and 5-hydroxymethylfurfural oxidation

Solar-driven charge transfer in a Cu-FDT/TiO2-anatase heterojunction enables Pt-assisted photocatalytic H2 evolution, and oxidation of TEOA or 5-HMF.

Graphical abstract: Highly active Cu-freudenbergite/TiO2 heterojunction for solar-driven hydrogen evolution and 5-hydroxymethylfurfural oxidation
From the themed collection: Solar Fuels for a Sustainable Energy Future
6 items

About this collection

This themed collection showcases recent advances in solar fuels research in EES Solar, EES Catalysis, Chemical Science, Sustainable Energy & Fuels and Energy Advances. Solar fuels production is the use of sunlight to drive the formation of high energy molecules (e.g. H2, CH3OH, NH3) from abundant feedstocks (e.g. H2O, N2, CO2). The field of solar fuels has the potential to deliver carbon free fuels and chemicals with applications ranging from energy storage, heating, transportation and manufacturing. The collection includes and celebrates the impactful work shared at the 5th International Solar Fuels Conference (ISF) conference held in Newcastle, UK in September 2025. 

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