Y. Shlosberg

This paper demonstrates that fibroblast cells can generate electrical current in bio-electrochemical cells, with higher output than microorganisms, and identifies NADH, flavins, and redox species in the cultivation medium as key contributors.

This study demonstrates that non-photosynthetic bacteria can generate photocurrent using NADH as an electron mediator, enhancing it with exogenous mediators.

This study demonstrates that photocurrent can be generated from cherry fruits in a bio-electrochemical cell, with NADH playing a key role in current production.

The paper shows that redox-active molecules in bacterial cultivation media can generate photocurrent in a bio-electrochemical cell.

This study demonstrates that plant roots release redox species that generate electricity in a bio-fuel cell, with light enhancing the current and roots enabling energy storage.

This study uses PAHs 9ACA and Perylene to detect changes in bacterial fluorescence, enabling species-specific identification through unique emission patterns.

This paper introduces a new cultivation medium that reduces Trp impurities to enable rapid detection of φx-174 virus via synchronous fluorescence.

This paper demonstrates harvesting photocurrent from intact plant leaves to produce hydrogen gas, showing higher current densities than microorganism-based systems.

This study demonstrates bioelectricity generation from live marine macroalgae in BPECs, achieving current densities higher than those from microorganisms.