Quantum dots are widely applicated into bioindustry and research owing to its superior
properties such as broad excitation spectra, narrow bandwidth emission spectra and high …

The biotic–abiotic photosynthetic system integrating inorganic light absorbers with whole-
cell biocatalysts innovates the way for sustainable solar-driven chemical transformation …

Quantum dots (QDs) are zero-dimension nanomaterials with excellent physical and
chemical properties, which have been widely used in environmental science and …

Living bio-nano systems for artificial photosynthesis are of growing interest. Typically, these
systems use photoinduced charge transfer to provide electrons for microbial metabolic …

Biohybrid systems can combine inorganic light‐harvesting materials and whole‐cell
biocatalysts to utilize solar energy for the production of chemicals and fuels. Whole‐cell …

Converting CO 2 into sustainable fuels (eg, CH 4) has great significance to solve carbon
emission and energy crisis. Generally, CO 2 methanation needs abundant of energy input to …

Indium phosphide/zinc sulfate (InP/ZnS) quantum dots (QDs) are presumed to be less
hazardous than those that contain cadmium. However, the toxicological profile has not been …

Photocatalytic systems comprising a hydrogenase-type catalyst and CdX (X= S, Se, Te)
chalcogenide quantum dot (QD) photosensitizers show extraordinary hydrogen production …

Biohybrid systems for solar fuel production integrate artificial light-harvesting materials with
biological catalysts such as microbes. In this perspective, we discuss the rational design of …

A comodified strategy was developed to connect inorganic catalysts with conjugated
polymers and outer-membrane proteins, where an in situ growth method was used to …