Jennifer A. N. Brophy

The paper develops T-SWITCH, a synthetic genetic switch that tracks T-DNA delivery and integration in plants, enabling integration-free genome editing.

This paper develops synthetic genetic circuits in Arabidopsis thaliana to count root development cues and enable differential gene expression in successive root branches.

The paper develops a workflow combining robotics, nanopore sequencing, and computational tools to characterize recombinase-based genetic circuits efficiently and at high resolution.

This paper demonstrates the use of non-canonical amino acids to enable plant-directed control of bacterial activity in soil.

This paper designs synthetic genetic circuits to control gene expression in plant roots, enabling predictable changes in root structure.