The ventral premotor cortex (PMv) and primary motor cortex (M1) represent critical nodes of
a parietofrontal network involved in grasping actions, such as power and precision grip …

The primary motor cortex (M1) is broadly acknowledged for its crucial role in executing
voluntary movements. Yet, its contributions to cognitive and sensory functions remain largely …

Motor learning involves acquiring new movement sequences and adapting motor
commands to novel conditions. Labile motor memories, acquired through sequence learning …

The current research investigates the role of tactile information and its associated neural
substrates in controlling the action. We employ a combination of motor and sensory …

Touch sensation from the glabrous skin of the hand is essential for precisely controlling
dexterous movements, yet the neural mechanisms by which tactile inputs influence motor …

In humans, moving efficiently along the gravity axis requires shifts in muscular contraction
modes. Raising the arm up involves shortening contractions of arm flexors, whereas the …

Control of the hand muscles during fine digit movements requires a high level of
sensorimotor integration, which relies on a complex network of cortical and subcortical hubs …

The ability to perform intricate movements is crucial for human motor function. The neural
mechanisms underlying precision and power grips are incompletely understood …

Modern deep neural network training is based on mini-batch stochastic gradient
optimization. While using extensive mini-batches improves the computational parallelism …

(1) Background: Transcranial direct current stimulation (tDCS) is a safe intervention, only
producing mild and transient adverse effects (AEs). However, there is no detailed analysis of …