The present study used coherence and directionality analyses to explore whether the motor cortex contributes to plantar flexor muscle activity during the stance phase and push-off phase during gait. Subjects walked on a treadmill, while EEG over the leg motorcortex area and EMG from the medial gastrocnemius and soleus muscles was recorded. Corticomuscular and intermuscular coherence were calculated from pair-wise recordings. Significant EEG-EMG and EMG-EMG coherence in the beta and gamma frequency bands was found throughout the stance phase with the largest coherence towards push-off. Analysis of directionality revealed that EEG activity preceded EMG activity throughout the stance phase until the time of push-off. These findings suggest tha...
Background: Walking is characterized by stable antiphase relations between upper and lower limb move...
Background: Neuroplasticity drives recovery of walking after a lesion of the descending tract. Intra...
Key points Gait-related arm swing in humans supports efficient lower limb muscle activation, indicat...
Locomotion relies on the fine-tuned coordination of different muscles which are controlled by partic...
Human gait is a complex process in the central nervous system that results from the integrity of var...
Increasing evidence suggests cortical involvement in the control of human gait. However, the nature ...
In lower mammals, locomotion seems to be mainly regulated by subcortical and spinal networks. On the...
The coordination between signals from cortical structures and spinal segmental pathways responsible ...
Objective: This study characterized the brain electrical activity during pedaling, a locomotor-like ...
The corticospinal system and local spinal circuits control human bipedal locomotion. The primary mot...
It is often assumed that automatic movements such as walking require little conscious attention and ...
Neural coding of gait intent and continuous gait kinematics have advanced brain computer interface (...
The corticospinal drive to the paretic soleus (SOL) and tibialis anterior (TA) is degraded, but whet...
International audienceHuman locomotion is a complex sensorimotor behavior whose central control rema...
Background: Walking is characterized by stable antiphase relations between upper and lower limb move...
Background: Neuroplasticity drives recovery of walking after a lesion of the descending tract. Intra...
Key points Gait-related arm swing in humans supports efficient lower limb muscle activation, indicat...
Locomotion relies on the fine-tuned coordination of different muscles which are controlled by partic...
Human gait is a complex process in the central nervous system that results from the integrity of var...
Increasing evidence suggests cortical involvement in the control of human gait. However, the nature ...
In lower mammals, locomotion seems to be mainly regulated by subcortical and spinal networks. On the...
The coordination between signals from cortical structures and spinal segmental pathways responsible ...
Objective: This study characterized the brain electrical activity during pedaling, a locomotor-like ...
The corticospinal system and local spinal circuits control human bipedal locomotion. The primary mot...
It is often assumed that automatic movements such as walking require little conscious attention and ...
Neural coding of gait intent and continuous gait kinematics have advanced brain computer interface (...
The corticospinal drive to the paretic soleus (SOL) and tibialis anterior (TA) is degraded, but whet...
International audienceHuman locomotion is a complex sensorimotor behavior whose central control rema...
Background: Walking is characterized by stable antiphase relations between upper and lower limb move...
Background: Neuroplasticity drives recovery of walking after a lesion of the descending tract. Intra...
Key points Gait-related arm swing in humans supports efficient lower limb muscle activation, indicat...