4.7 Article

Beta Oscillations in Working Memory, Executive Control of Movement and Thought, and Sensorimotor Function

Journal

JOURNAL OF NEUROSCIENCE
Volume 39, Issue 42, Pages 8231-8238

Publisher

SOC NEUROSCIENCE
DOI: 10.1523/JNEUROSCI.1163-19.2019

Keywords

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Categories

Funding

  1. Human Brain Project (HBP-SGA1) [720270]
  2. BrainLinks-BrainTools Cluster of Excellence - German Research Foundation [DFG EXC 1086]
  3. British Academy [BASG161006]
  4. BIAL Foundation [BIAL R150510]
  5. Agence National de la Recherche [ANR-NEUR-05-045-1]
  6. French National Centre for Scientific Research (CNRS-PEPS)
  7. Swedish Research Council [VR 2018-04197]
  8. National Institute of Mental Health [NIMH R37MH087027]
  9. National Institute of Health [UH3 NS100544, R01 NS090913, NINDS NS106822, NIDA DA026452]
  10. Human Brain Project (HBP-SGA2) [785907]
  11. Swedish Research Council [2018-04197] Funding Source: Swedish Research Council

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Beta oscillations (similar to 13 to 30 Hz) have been observed during many perceptual, cognitive, and motor processes in a plethora of brain recording studies. Although the function of beta oscillations (hereafter beta for short) is unlikely to be explained by any single monolithic description, we here discuss several convergent findings. In prefrontal cortex (PFC), increased beta appears at the end of a trial when working memory information needs to be erased. A similar clear-out function might apply during the stopping of action and the stopping of long-term memory retrieval (stopping thoughts), where increased prefrontal beta is also observed. A different apparent role for beta in PFC occurs during the delay period of working memory tasks: it might serve to maintain the current contents and/or to prevent interference from distraction. We confront the challenge of relating these observations to the large literature on beta recorded from sensorimotor cortex. Potentially, the clear-out of working memory in PFC has its counterpart in the postmovement clear-out of the motor plan in sensorimotor cortex. However, recent studies support alternative interpretations. In addition, we flag emerging research on different frequencies of beta and the relationship between beta and single-neuron spiking. We also discuss where beta might be generated: basal ganglia, cortex, or both. We end by considering the clinical implications for adaptive deep-brain stimulation.

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