Plants and some types of bacteria demonstrate an elegant means to capitalize on the
superabundance of solar energy that reaches our planet with their energy conversion …

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 long‐term success of photosynthetic organisms has resulted in their global
superabundance, which is sustained by their widespread, continual mass‐production of the …

Tuning the Fermi energy of silicon through doping leads to alignment of silicon bands with
the redox active sites of photosystem I. Integrating photosystem I films with p-doped silicon …

We report the fabrication of a hybrid light-harvesting electrode consisting of photosystem I
(PSI) proteins extracted from spinach and adsorbed as a monolayer onto electrically …

In this work, we report for the first time the entrapment of the biomolecular supercomplex
Photosystem I (PSI) within a conductive polymer network of polyaniline via electrochemical …

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 design of electrode interfaces to achieve efficient electron transfer to biomolecules is
important in many bioelectrochemical processes. Within the field of biohybrid solar energy …

Photosystem I (PSI) is a photoactive electron-transport protein found in plants that
participates in the process of photosynthesis. Because of PSI's abundance in nature and its …

Understanding and improving charge transfer pathways between extracted Photosystem I
(PSI) protein complexes and electrodes is necessary for the development of low‐cost PSI …