Gregory Francis Payne

This paper uses molecular dynamics simulations to show how an electric field remodels chitosan hydrogel nanofibril structure through active dewetting, leading to vertical contraction and compaction.

This paper introduces an electronic detection method to identify structural perturbations in proteins by measuring mediator-accessible redox activities, demonstrating its application in biomanufacturing.

This paper demonstrates that acetosyringone, a plant phenolic, can induce gene expression in E. coli's OxyRS regulon when oxidized via electrode potential, expanding electronic control of microbial responses.

This paper demonstrates electronic control of biological systems through redox-enabled microelectronic devices, enabling feedback control of enzyme activity, genetic circuits, and cell communication.

The paper develops a method to control microbial consortia by programming cell lysis using redox and quorum sensing signals.

This paper develops a bioelectronic communication system using engineered microbial networks to exchange information between electronics and living cells, enabling real-time control and feedback.