J. T. Robinson

This study shows light-activated molecular machines can remotely stimulate intercellular calcium waves, controlling muscle contraction in vitro and animal behavior in vivo.

The paper presents a power electronic system and magnetic nanoparticles enabling three-channel magnetogenetic neurostimulation with selective heating across different frequency ranges.

This paper introduces self-rectifying magnetoelectric metamaterials that enable fast, precise remote neural stimulation and restore sensory motor functions in rats.

This study identifies ecDNA in 18% of medulloblastoma patients, linking it to higher relapse and mortality rates and suggesting enhancer rewiring as an oncogenic mechanism.

This paper introduces a millimeter-sized wireless implant for endovascular nerve stimulation, demonstrating its ability to target peripheral nerves with minimal invasiveness and reduced risk compared to traditional methods.

This study demonstrates sub-second, multichannel neural stimulation in flies using magnetic nanoparticles and temperature-sensitive ion channels, improving the temporal resolution of magnetogenetics.

cytoNet analyzes cell communities in microscopy images to quantify spatial relationships and functional interactions, demonstrating applications in neuroscience and tissue biology.

This paper demonstrates magnetoelectric materials enable miniature, wireless neural stimulators operating at therapeutic high-frequencies for treating Parkinson's disease in rodents.

This paper develops porous Pt electrodes using sputtering for low-impedance, flexible microelectrodes that can record neural activity in vivo with reduced thermal noise and minimal tissue disruption.