Sentence examples for maturation of motor from inspiring English sources

Open-water swimming has been demonstrated to be a robust indicator of motor coordination in developing rodents [46], [47]: a pup's ability to keep its nose above water is highly correlated with the age and maturation of motor circuitry in juvenile animals.

Our results provide evidence that enrichment from birth can accelerate the maturation of motor control and motivational circuits, at the cellular as well as the behavioural level, akin to changes that have been described in sensory as well as memory systems [23], [26], [27], [77].

Nevertheless, the fact that both this striatal CSPG transition and behaviours associated with striatal function exhibit accelerated development due to enrichment indicates that there exists a period that is crucially important for the maturation of motor control circuits within the first two to three postnatal weeks of the neonatal mouse.

Although further experiments will be required to determine how specific features of our enriched environments contribute to the change observed to both circuitry and function in enriched pups, our results provide evidence that enrichment from birth can profoundly influence the maturation of motor control systems in developing animals.

This proximal-distal age-dependent maturation of motor control is in line with already published findings.

Differences seen in motor strategies, when divided according to attended class, suggest a proximal-distal maturation of motor control.

Here we use in vivo electrophysiology to determine how cellular properties influence maturation of zebrafish motor behavior.

This period has also been determined sensitive for maturation of coordinated motor function in Drosophila embryos [ 32].

These data indicate that initial development and postnatal maturation of forebrain motor circuitry occurs normally in the absence of torsinA in forebrain cholinergic and GABAergic neurons.

Because there is evidence for continuing maturation of fine motor precision and sensorimotor co-ordination across the age range of our sample (Pehoski, Henderson & Tickle-Degnen, 1997), we administered a sensorimotor control task to correct for any such factors as potential confounding effects on VWM precision estimates.

We aimed to systematically characterize spatial and temporal maturation of sensori-motor functional brain activity across this period using functional MRI and a custom-made robotic stimulation device.