The consolidation of novel motor skills has traditionally been investigated over the timescale of hours-days following practice. However, a growing body of evidence has demonstrated that consolidation of skills occurs more rapidly across a scale of seconds – a process termed ‘micro-consolidation’. Micro-consolidation of explicitly cued motor sequences is supported by frontoparietal beta oscillations. Whether beta power modulation is a common mechanism supporting rapid consolidation of other forms of skill learning, such as implicit sequence learning, is yet to be elucidated. 72 healthy adults aged 18-35 (55% female) completed a serial reaction time task with concurrent electroencephalography recording. In line with our previous work, we show that the early ‘fast’ learning on an implicit sequence task is primarily expressed as micro-offline gains during brief rest periods between periods of practice. Beta power was modulated as a function of active practice vs rest epochs (i.e., event-related synchronisation/desynchronisation), and here we demonstrate that micro-offline gains are associated with this modulation of beta power during the rest epochs. This relationship was specific to the beta frequency, and was not observed across either mu or gamma bands. Overall, in line with seminal work implicating beta in early explicit motor learning, our results indicate that beta is a shared neurophysiological signature of micro-consolidation of implicit sequences. Key points summary - Recent evidence demonstrates rapid consolidation of motor skills over seconds, termed micro-consolidation. - Seminal work has implicated beta oscillations in early explicit motor learning, though whether beta supports rapid consolidation of other forms of skill learning is unclear. - Using electroencephalography, we demonstrate that beta modulation is a neurophysiological signature of micro-consolidation of implicitly learnt motor sequences. - Lower beta at rest is associated with a higher degree of micro-consolidation. - Our findings shed critical new insight into the neurophysiological mechanisms mediating rapid consolidation of implicit motor skills during early ‘fast’ learning.
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