The development of peak alpha frequency from infancy to adolescence and its role in visual temporal processing: A meta-analysis

While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring re...

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Published inDevelopmental cognitive neuroscience Vol. 57; p. 101146
Main Authors Freschl, Julie, Azizi, Lina Al, Balboa, Lilyann, Kaldy, Zsuzsa, Blaser, Erik
Format Journal Article
LanguageEnglish
Published Netherlands Elsevier Ltd 01.10.2022
Elsevier
Subjects
Adolescent
Adult
Alpha Rhythm
Child, Preschool
Children
Development
Electroencephalography
Humans
Infant
Peak alpha frequency
Review
Sensation
Time Perception
Visual Perception
Visual temporal processing
Peak alpha frequency
Development
Alpha rhythm
Visual temporal processing
Children
Online AccessGet full text
ISSN1878-9293
1878-9307
1878-9307
DOI10.1016/j.dcn.2022.101146

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Abstract While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age (Freschl et al., 2019, 2020). The fact that PAF reaches the adult range of 8–12 Hz by that age strengthens the link between PAF and temporal resolution. •Determined the developmental trajectory of Peak Alpha Frequency (PAF).•PAF increases from 6 Hz in early infancy and asymptotes at 10 Hz by adolescence.•PAF increase is consistent with the age-related increase in visual temporal resolution.•No effect of resting state EEG methodology (eyes-closed vs. eyes-open) or sex on PAF.
AbstractList While it has been shown that alpha frequency increases over development ( Stroganova et al., 1999 ), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age ( Freschl et al., 2019 , Freschl et al., 2020 ). The fact that PAF reaches the adult range of 8–12 Hz by that age strengthens the link between PAF and temporal resolution. • Determined the developmental trajectory of Peak Alpha Frequency (PAF). • PAF increases from 6 Hz in early infancy and asymptotes at 10 Hz by adolescence. • PAF increase is consistent with the age-related increase in visual temporal resolution. • No effect of resting state EEG methodology (eyes-closed vs. eyes-open) or sex on PAF.
While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age (Freschl et al., 2019, 2020). The fact that PAF reaches the adult range of 8–12 Hz by that age strengthens the link between PAF and temporal resolution.
While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age (Freschl et al., 2019, 2020). The fact that PAF reaches the adult range of 8–12 Hz by that age strengthens the link between PAF and temporal resolution. •Determined the developmental trajectory of Peak Alpha Frequency (PAF).•PAF increases from 6 Hz in early infancy and asymptotes at 10 Hz by adolescence.•PAF increase is consistent with the age-related increase in visual temporal resolution.•No effect of resting state EEG methodology (eyes-closed vs. eyes-open) or sex on PAF.
While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age (Freschl et al., 2019, 2020). The fact that PAF reaches the adult range of 8-12 Hz by that age strengthens the link between PAF and temporal resolution.While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it challenging to constrain theories linking alpha rhythms to perceptual development. We conducted a comprehensive review of studies measuring resting-state occipital peak alpha frequency (PAF, the frequency exhibiting maximum power) from birth to 18 years of age. From 889 potentially relevant studies, we identified 40 reporting PAF (109 samples; 3882 subjects). A nonlinear regression revealed that PAF increases quickly in early childhood (from 6.1 Hz at 6 months to 8.4 Hz at 5 years) and levels off in adolescence (9.7 Hz at 13 years), with an asymptote at 10.1 Hz. We found no effect of resting state procedure (eyes-open versus eyes-closed) or biological sex. PAF has been implicated as a clock on visual temporal processing, with faster frequencies associated with higher visual temporal resolution. Psychophysical studies have shown that temporal resolution reaches adult levels by 5 years of age (Freschl et al., 2019, 2020). The fact that PAF reaches the adult range of 8-12 Hz by that age strengthens the link between PAF and temporal resolution.
ArticleNumber 101146
Author Kaldy, Zsuzsa
Azizi, Lina Al
Blaser, Erik
Balboa, Lilyann
Freschl, Julie
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Keywords Peak alpha frequency
Development
Alpha rhythm
Visual temporal processing
Children
Language English
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Snippet While it has been shown that alpha frequency increases over development (Stroganova et al., 1999), a precise trajectory has not yet been specified, making it...
While it has been shown that alpha frequency increases over development ( Stroganova et al., 1999 ), a precise trajectory has not yet been specified, making it...
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StartPage 101146
SubjectTerms Adolescent
Adult
Alpha Rhythm
Child, Preschool
Children
Development
Electroencephalography
Humans
Infant
Peak alpha frequency
Review
Sensation
Time Perception
Visual Perception
Visual temporal processing
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Title The development of peak alpha frequency from infancy to adolescence and its role in visual temporal processing: A meta-analysis
URI https://dx.doi.org/10.1016/j.dcn.2022.101146
https://www.ncbi.nlm.nih.gov/pubmed/35973361
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