Microbial protein nanowires are emerging as an alternative to abiotic nanowires for
electronics applications. Microbial nanowires are sustainably produced, robust, non-toxic …

The development of artificial metalloenzymes (ArMs) aims to expand the capabilities of
enzymatic catalysis, most notably towards new reaction mechanisms. Frequently, ArMs …

Nature has evolved diverse electron transport proteins and multiprotein assemblies
essential to the generation and transduction of biological energy. However, substantially …

The structure of helical polymers is dictated by the molecular chirality of their monomer units.
Particularly, macromolecular helices with monomer sequence control have the potential to …

The tunable design of protein redox potentials promises to open a range of applications in
biotechnology and catalysis. Here, we introduce a method to calculate redox potential …

Natural electron-conducting circuits play essential roles in respiration and photosynthesis
and are therefore of fundamental importance to all life on earth. These circuits are composed …

This review aims to provide an overview of the progress in protein‐based artificial
photosystem design and their potential to uncover the underlying principles governing light …

The major energy-producing reactions of biochemistry occur at biological membranes.
Computational protein design now provides the opportunity to elucidate the underlying …

De novo protein design has advanced such that many peptide assemblies and protein
structures can be generated predictably and quickly. The drive now is to bring functions to …

It has long been known that the alteration of protein side chains that occlude or expose the
heme cofactor to water can greatly affect the stability of the oxyferrous heme state. Here, we …