Lasse Christiansen

This study shows that transcranial magnetic stimulation of the human leg motor area elicits iTEPs similar to those from the hand area, suggesting a general cortical response.

This study investigates the effects of low-intensity theta-burst ultrasound stimulation on corticospinal excitability and finds no consistent group-level changes in motor evoked potentials.

The paper examines how cortical and corticospinal excitability changes during different beta-band states of movement, finding opposing patterns in their modulation.

The paper directly measures motor cortical inhibition using immediate TMS-evoked potentials (iTEPs) instead of motor-evoked potentials (MEPs), showing iTEPs provide a more accurate reflection of GABAergic inhibition.

This study investigates whether tDCS over the leg motor cortex during lower-limb motor skill training improves learning and retention, finding that it enhances one-week retention without affecting corticospinal excitability.

The paper compares how motor state affects corticospinal and cortical responses to TMS, finding they are modulated differently.

The paper maps rostro-caudal transcranial evoked potentials (iTEPs) using TMS-EEG and compares them to motor-evoked potentials (MEPs), finding similar but distinct spatial patterns.

This study compares the spatial properties of corticomotor maps elicited by single-pulse and paired-pulse TMS in humans, finding spatially distinct cortical circuits for single- and paired-pulse TMS.

This study systematically compares TMS-EEG studies on the primary motor cortex, finding that methodological choices affect TEP amplitudes and latencies.

This paper demonstrates that paired corticomotoneuronal stimulation (PCMS) can prime motor learning in humans by enhancing spinal neuroplasticity and interacting with experience-dependent plasticity.

The paper records immediate transcranial evoked potentials (i-TEPs) from TMS of the primary motor cortex and finds they are site-specific and modulated by stimulation parameters.

This study investigates short-latency corticomotor facilitation from multi-pulse TMS, identifying two distinct mechanisms: one linked to I-wave periodicity and another independent of it.

The paper investigates how recent electrical stimulation history affects corticospinal excitability and short-latency afferent inhibition (SAI) in human motor cortex.