Dopamine plays an important role in the modulation of neuroplasticity, which serves as the
physiological basis of cognition. The physiological effects of dopamine depend on receptor�…

The neuromodulator dopamine plays an important role in synaptic plasticity. The effects are
determined by receptor subtype specificity, concentration level, and the kind of�…

Exercise is known to benefit motor skill learning in health and neurological disease.
Evidence from brain stimulation, genotyping, and Parkinson's disease studies converge to�…

Dopamine improves learning and memory formation. The neurophysiological basis for these
effects might be a focusing effect of dopamine on neuroplasticity: Accordingly, in humans l�…

Rationale: Dopamine signalling supports motor skill learning in a variety of ways, including
through an effect on cortical and striatal plasticity. One neuromodulator that has been�…

When processing sensory signals, the brain must account for noise, both noise in the
stimulus and that arising from within its own neuronal circuitry. Dopamine receptor activation�…

The primary motor cortex (M1) is involved in fine voluntary movements control. Previous
studies have shown the existence of a dopamine (DA) innervation in M1 of rats and�…

Dopamine (DA) modulates motor coordination, and its depletion, as in Parkinson's disease,
produces motor impairment. The basal ganglia, cerebellum and cerebral cortex are�…

The neuromodulator dopamine plays an important role in synaptic plasticity. The effects
depend on receptor subtypes, affinity, concentration level, and the kind of neuroplasticity�…

While the primary motor cortex (M1) is know to receive dopaminergic projections, the
functional role of these projections is poorly characterized. Here, it is hypothesized that�…