Galit Pelled

The paper develops a gene circuit that uses light and magnetic stimuli to control gene expression in mammalian cells.

The paper describes play behavior in captive California Two-Spot Octopuses to better understand their behavioral repertoire and welfare.

This study shows that activating the EPG protein with magnetic fields increases intracellular manganese uptake, suggesting MEMRI can monitor EPG's neuromodulatory effects.

This study uses a pig model to assess long-term post-concussion brain changes using volumetric and diffusion tensor imaging after mild traumatic brain injury.

This study examines gait changes in adolescent pigs after mTBI, finding balance impairments and altered movement patterns similar to humans.

This study uses electrophysiology and computational models to predict octopus arm movements based on spike timing and neural activity patterns.

This paper introduces a magnetogenetic stimulation method in rats that modulates neural circuits and measures brain activity via MRI, showing increased signal fluctuations and functional connectivity.

The paper identifies a conserved phenylalanine motif in Teleost fish that may enhance electromagnetic perception, with functional variants linked to freshwater environments.

This paper introduces a method to reconstitute split proteins using magnetic stimulation, demonstrating it with NanoLuc, APEX2, and Herpes Simplex Virus Type-1 Thymidine Kinase.

The paper identifies a three-phenylalanine motif critical for magnetoreception in the EPG protein from Kryptopterus vitreolus when expressed in mammalian cells.

This study demonstrates that magnetogenetics using the EPG gene in inhibitory interneurons can reduce seizure frequency and delay onset in a rat epilepsy model.

This study shows that rTMS and the EPG gene improve mobility, reduce anxiety, and enhance neuroplasticity after nerve injury in rats.

This paper characterizes the EPG protein's cellular location, orientation, and dynamics in response to magnetic stimulation, providing insights into magnetoreception mechanisms and magnetogenetics.

This study uses MEMRI to visualize laminar-specific spinal cord pathways in rats, showing T1 signal enhancement in specific laminae after MnCl2 administration.