The photosystem I (PSI) protein complex is known to enhance bioelectrode performance for
many liquid-based photoelectrochemical cells. A hydrogel as electrolyte media allows for …

Here, a new design for natural dye-sensitized solar cells is presented. A stacked assembly
consisting of a discrete Photosystem I protein multilayer film atop a natural dye-sensitized …

Photosystem I (PSI) from oxygenic photosynthetic organisms is an attractive sensitizer for
nano-biohybrid solar cells as it has a combined light-harvesting and reaction center in one …

Photosynthesis is the process by which Nature coordinates a tandem of protein complexes
of impressive complexity that function to harness staggering amounts of solar energy on a …

The abundant photosynthetic protein Photosystem I (PSI) achieves 1.1 V charge separation
with nearly perfect quantum yield. Researchers from around the world have extracted PSI …

The increase in demand for energy has made Photosystem I (PSI), which can convert solar
energy into a charge separation with an efficiency near unity, a topic of great research …

The innately highly efficient light-powered separation of charge that underpins natural
photosynthesis can be exploited for applications in photoelectrochemistry by coupling …

Over the course of a few billion years, nature has developed extraordinary nanomaterials for
the efficient conversion of solar energy into chemical energy. One of these materials …

The need for clean, renewable energy has fostered research into photovoltaic alternatives to
silicon solar cells. Pigment–protein complexes in green plants convert light energy into …

Extracted from the chloroplasts of green plants, Photosystem I (PSI) is a multi-subunit protein
complex that can be deposited as a thin film onto electrodes and incorporated into biohybrid …