0000000001064351

AUTHOR

Scott Makeig

showing 2 related works from this author

EEG Effective Source Projections Are More Bilaterally Symmetric in Infants Than in Adults

2020

Although anatomical brain hemispheric asymmetries have been clearly documented in the infant brain, findings concerning functional hemispheric specialization have been inconsistent. The present report aims to assess whether bilaterally symmetric synchronous activity between the two hemispheres is a characteristic of the infant brain. To asses cortical bilateral synchronicity, we used decomposition by independent component analysis (ICA) of high-density electroencephalographic (EEG) data collected in an auditory passive oddball paradigm. Decompositions of concatenated 64-channel EEG data epochs from each of 34 typically developing 6-month-old infants and from 18 healthy young adults particip…

medicine.medical_specialty1.1 Normal biological development and functioningAuditory oddballAudiologyElectroencephalography050105 experimental psychologylcsh:RC321-57103 medical and health sciencesFunctional brainBehavioral Neuroscience0302 clinical medicineClinical ResearchUnderpinning researchmedicinePsychology0501 psychology and cognitive sciencesEEGbrain symmetryOddball paradigmdevelopmentlcsh:Neurosciences. Biological psychiatry. NeuropsychiatryBiological PsychiatryOriginal ResearchPediatricmedicine.diagnostic_testbusiness.industrybrain laterality05 social sciencesBrain maturationCortical fieldNeurosciencesExperimental Psychologyfunctional brain organizationIndependent component analysisPsychiatry and Mental healthmedicine.anatomical_structureNeuropsychology and Physiological PsychologyNeurologyindependent component analysisScalpNeurologicalCognitive Sciencesbusiness030217 neurology & neurosurgeryNeuroscienceFrontiers in Human Neuroscience
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Can Oscillatory Alpha-Gamma Phase-Amplitude Coupling be Used to Understand and Enhance TMS Effects?

2019

Recent applications of simultaneous scalp electroencephalography (EEG) and transcranial magnetic stimulation (TMS) suggest that adapting stimulation to underlying brain states may enhance neuroplastic effects of TMS. It is often assumed that longer-lasting effects of TMS on brain function may be mediated by phasic interactions between TMS pulses and endogenous cortical oscillatory dynamics. The mechanisms by which TMS exerts its neuromodulatory effects, however, remain unknown. Here, we discuss evidence concerning the functional effects on synaptic plasticity of oscillatory cross-frequency coupling in cortical networks as a potential framework for understanding the neuromodulatory effects o…

phase-amplitude couplinggenetic structuresmedicine.medical_treatmentStimulationStimulus (physiology)Electroencephalographybehavioral disciplines and activities050105 experimental psychologylcsh:RC321-57103 medical and health sciencesBehavioral NeuroscienceBursting0302 clinical medicinetranscranial magnetic stimulationNeuroplasticitymedicine0501 psychology and cognitive sciencesEEGlcsh:Neurosciences. Biological psychiatry. NeuropsychiatryNeurostimulationBiological PsychiatryPhysicsmedicine.diagnostic_testmusculoskeletal neural and ocular physiology05 social sciencesPACTranscranial magnetic stimulationPsychiatry and Mental healthNeuropsychology and Physiological Psychologynervous systemNeurologyTMSPerspectiveoscillationsSynaptic plasticityNeuroscience030217 neurology & neurosurgeryNeuroscienceneurostimulationFrontiers in Human Neuroscience
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