T. M. Bruns

This paper develops durable carbon fiber electrode arrays for precise neural recording in rat and feline tissues, demonstrating their effectiveness in capturing neural signals from various structures.

This study demonstrates high-density neural recordings from feline sacral dorsal root ganglia using a flexible microelectrode array, achieving single-unit activity detection and tracking during sensory stimulation.

This study develops a high-density carbon fiber microelectrode array for recording action potentials from small autonomic nerves in rats, demonstrating its effectiveness in measuring signal amplitudes, conduction velocities, and firing rate changes.

This study develops a closed-loop sacral neuromodulation system using DRG sensory feedback in felines, showing increased bladder capacity and reduced stimulation time.

This paper analyzes how bladder pressure is encoded by sensory fibers in cats using information theory, showing redundancy and independence among neuron types that improve decoding robustness.

This study examines the rat vaginal microbiome across the estrous cycle and evaluates the effect of genital nerve electrical stimulation on its composition.

This paper develops a stretchable bladder interface using carbon nanotubes and Ecoflex, demonstrating its sensing and stimulation capabilities in vivo.

This paper introduces a diamond shuttle for delivering flexible bioelectronics with reduced tissue compression, showing improved performance in rat and feline models.