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Wikenigma - an Encyclopedia of Unknowns Wikenigma - an Encyclopedia of the Unknown

Muscle memory

The performance of many tasks improves, throughout life, with repetition and practice. Even in adulthood simple tasks such as reaching to a target or rapidly and accurately tapping a short sequence of finger movements, which appear, when mastered, to be effortlessly performed, often require extensive training before skilled performance develops. What changes occur in the adult brain when a new skill is acquired through practice? When, and after how much practice, do these changes occur?
Source; Proc Natl Acad Sci U S A. 95(3): 861–868.

Once acquired, 'muscle memory' skills (e.g. riding a bicycle, playing a piano etc) can often be effortlessly 'recalled' decades later. Precise details of the neurobiological systems which enable the memory are unknown.

Experimental studies have shown that the memory appears to be formed in two distinct phases. The 'Fast' phase and the 'Slow' (consolidation) phase. It's assumed that the two forms might utilise different areas of the brain. In fMRI studies, the Primary Motor Cortex ( M1 ) has been shown to be involved at some level.

The hypothesis is that fast learning involves processes that select and establish an optimal routine or plan for the performance of the given task. Slow learning, on the other hand, may reflect the ongoing long-term, perhaps structural, modifications of basic motor modules; it may be implemented through time-dependent strengthening of links between motor neurons as a function of correlated activity, and their recruitment into a specific representation of the trained sequence of movements.
(Source as above)

Also see: Memoryplugin-autotooltip__plain plugin-autotooltip_bigMemory

On a macro scale, neuroscientists now know (more or less) where memories are 'stored' in the human brain. The brain's hippocampus, the amygdala, the striatum and the mammiliary bodies (for example) are known to be involved in some way, because individuals who s…


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