Sina Shirinpour

This study examines phase-dependent motor cortex excitability in stroke survivors using EEG and TMS, finding similar patterns to healthy adults but with reduced phase preference in those with more severe motor symptoms.

This study investigates how electric stimulation affects layer-specific LFPs in monkey V1, finding that deeper layers show phase-dependent changes while superficial layers do not.

This study investigates how neural oscillation phases affect corticospinal excitability and cortical responses during TMS, finding phase-dependent effects on TEP components and MEPs.

This study uses a computational model to show that tACS effects depend on intensity and frequency through non-linear entrainment and network dynamics.

This study investigates the direct and peripheral effects of TMS in non-human primates using invasive recordings, showing dose-dependent responses and spatial specificity.

This study shows that alternating current stimulation induces phase precession and synaptic plasticity in humans and non-human primates, providing causal evidence for its role in neuroplasticity.

This study evaluates how anatomical details affect electric fields in transcranial stimulation simulations using a non-human primate model.

This study investigates how the phase of mu and beta oscillations in the motor cortex affects corticospinal excitability using phase-specific transcranial magnetic stimulation.

This study investigates how transcranial alternating current stimulation affects spiking activity in computational models of single neocortical neurons, finding no effect on firing rate but entrainment in large pyramidal neurons.

The paper introduces NeMo-TMS, a toolbox for simulating TMS-induced neuronal and subcellular responses across scales, enabling detailed modeling of TMS effects.

This study evaluates real-time EEG-TMS methods, finding that a new algorithm performs as well as existing methods but is more efficient.

The paper models TMS and TES electric fields in mouse, monkey, and human brains to compare induced field strengths across species.