Jacob T. Robinson

The paper introduces MiniFAST, a miniaturized microscope that improves speed, sensitivity, and resolution for in vivo neural recording using genetically encoded indicators.

This paper introduces a deep-learning-enabled endomicroscope that improves field-of-view and depth-of-field for in vivo imaging of cancer-related epithelial features.

This paper introduces a dual-channel magnetic chamber for high-frequency magnetic neuromodulation in mice, capable of generating two independent magnetic fields with minimal interference and real-time behavioral monitoring.

This study develops a microfluidic device to enrich pancreatic cancer-derived extracellular vesicles based on charge, linking KRAS status to EV secretion and surface charge.

This paper demonstrates that spiking HEK cells can respond to magnetic fields by generating action potentials through mechanoreception pathways, without requiring synthetic nanoparticles or other co-factors.

This paper improves wireless power delivery to mm-sized bioelectronic implants using magnetoelectric materials, achieving a power density 4 times higher than previous methods.

The paper shows that Hydra vulgaris exhibits phototaxis only when starved, with satiety affecting jump rate but not orientation or distance.

This study uses cell-type specific imaging in Hydra to show that neurons differentiate terminally before re-establishing functional neural circuits during regeneration.

This paper introduces a subdural CMOS optical probe for bidirectional neural interfacing, designed for implantation in primate brains and potential human application.

This paper demonstrates in vivo fluorescence imaging with a flat, lensless microscope achieving high spatial resolution and large field of view.

This study identifies two distinct neuronal networks in Hydra vulgaris that coordinate mechanosensory responses, revealing how sensory information is processed in a radially symmetric nervous system.

This study shows Hydra vulgaris maintains stable thermal responses despite losing half its neurons through caloric restriction or surgery.

The paper identifies a spontaneous sleep-like state in C. elegans induced by microfluidic confinement, regulated by satiety, thermosensation, and mechanosensation.

The paper proposes that magnetic fields can alter the magnetic entropy of biogenic nanoparticles, potentially triggering temperature-sensitive ion channels to create magnetogenetic effects.

This paper introduces a method to analyze the dynamic network formation of human neural progenitor cells using graph theory and long-term imaging, revealing key transitions in network efficiency and electrical activity during differentiation.

This paper introduces microfluidic devices for simultaneous electrical, chemical, and optical analysis of Hydra's neural activity and behavior.

This paper introduces fluidic microdrives to implant and actuate ultra-flexible neural electrodes with minimal tissue damage and high precision.