Phase-amplitude coupling of delta brush unveiling neuronal modulation development in the neonatal brain
•Phase-amplitude coupling identified delta brushes as complex waveforms of slow delta waves and alpha-beta activities.•Phase-amplitude coupling of delta brushes being maximum around 32–36 post-menstrual weeks with occipital predominance.•Delta brushes have consistent coupling phases 0° or 180° betwe...
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Published in | Neuroscience letters Vol. 735; p. 135211 |
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Abstract | •Phase-amplitude coupling identified delta brushes as complex waveforms of slow delta waves and alpha-beta activities.•Phase-amplitude coupling of delta brushes being maximum around 32–36 post-menstrual weeks with occipital predominance.•Delta brushes have consistent coupling phases 0° or 180° between slow waves and alpha-beta activities through 31–40 weeks.•Phase-amplitude coupling might reflect the cortical neuronal fast activity modulated by slow waves of subcortical regions.
Delta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed alpha–beta activity in delta brushes to elucidate the spatiotemporal developments of the delta brush with post-menstrual weeks (PMW).
The subjects were 18 neurologically intact patients (seven girls). We analyzed EEG within 42 PMW. Patients were divided into four age groups as follows: PMW ≤30w; 31–34 w; 35–38 w; and 39–42 w. We selected up to three epochs of 2-minute EEG segments including delta brushes. We calculated the modulation index (MI), direct mean vector length (dMVL), and mean of phase angle of coupling by PAC between slow waves (0.5–1.5 Hz) and fast activities (8–25 Hz) in four regions (F: Fp1 and Fp2, C: C3 and C4, T: T3 and T4, O: O1 and O2).
We collected data from 18 patients and 31 epochs between 29 and 42 PMW, which comprised one, four, five, and eight patients, and two, seven, eight, and 14 epochs in the ≤30w, 31–34 w, 35–38 w, and 39–42 w groups, respectively. There were significant differences in the dMVL between the four regions in age groups ≤30w (P = 0.033) and 31–34w (0.017). Both MI and dMVL showed that delta brushes became higher in the occipital region from 32 to 36 PMW. The mean phase angle of coupling concentrated around either 0° or 180° for all age groups.
PAC analysis revealed the spatiotemporal relations of alpha–beta activities that are modulated by slow delta waves in neonatal delta brushes. The delta brushes appeared to be at a maximum around 32–36 PMW with the predominant occipital distribution. The PAC of the delta brush might represent the cortical neuronal fast activity that is modulated by slow delta waves of subcortical regions during a particular neonatal period. |
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AbstractList | Delta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed alpha-beta activity in delta brushes to elucidate the spatiotemporal developments of the delta brush with post-menstrual weeks (PMW).
The subjects were 18 neurologically intact patients (seven girls). We analyzed EEG within 42 PMW. Patients were divided into four age groups as follows: PMW ≤30w; 31-34 w; 35-38 w; and 39-42 w. We selected up to three epochs of 2-minute EEG segments including delta brushes. We calculated the modulation index (MI), direct mean vector length (dMVL), and mean of phase angle of coupling by PAC between slow waves (0.5-1.5 Hz) and fast activities (8-25 Hz) in four regions (F: Fp1 and Fp2, C: C3 and C4, T: T3 and T4, O: O1 and O2).
We collected data from 18 patients and 31 epochs between 29 and 42 PMW, which comprised one, four, five, and eight patients, and two, seven, eight, and 14 epochs in the ≤30w, 31-34 w, 35-38 w, and 39-42 w groups, respectively. There were significant differences in the dMVL between the four regions in age groups ≤30w (P = 0.033) and 31-34w (0.017). Both MI and dMVL showed that delta brushes became higher in the occipital region from 32 to 36 PMW. The mean phase angle of coupling concentrated around either 0° or 180° for all age groups.
PAC analysis revealed the spatiotemporal relations of alpha-beta activities that are modulated by slow delta waves in neonatal delta brushes. The delta brushes appeared to be at a maximum around 32-36 PMW with the predominant occipital distribution. The PAC of the delta brush might represent the cortical neuronal fast activity that is modulated by slow delta waves of subcortical regions during a particular neonatal period. •Phase-amplitude coupling identified delta brushes as complex waveforms of slow delta waves and alpha-beta activities.•Phase-amplitude coupling of delta brushes being maximum around 32–36 post-menstrual weeks with occipital predominance.•Delta brushes have consistent coupling phases 0° or 180° between slow waves and alpha-beta activities through 31–40 weeks.•Phase-amplitude coupling might reflect the cortical neuronal fast activity modulated by slow waves of subcortical regions. Delta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed alpha–beta activity in delta brushes to elucidate the spatiotemporal developments of the delta brush with post-menstrual weeks (PMW). The subjects were 18 neurologically intact patients (seven girls). We analyzed EEG within 42 PMW. Patients were divided into four age groups as follows: PMW ≤30w; 31–34 w; 35–38 w; and 39–42 w. We selected up to three epochs of 2-minute EEG segments including delta brushes. We calculated the modulation index (MI), direct mean vector length (dMVL), and mean of phase angle of coupling by PAC between slow waves (0.5–1.5 Hz) and fast activities (8–25 Hz) in four regions (F: Fp1 and Fp2, C: C3 and C4, T: T3 and T4, O: O1 and O2). We collected data from 18 patients and 31 epochs between 29 and 42 PMW, which comprised one, four, five, and eight patients, and two, seven, eight, and 14 epochs in the ≤30w, 31–34 w, 35–38 w, and 39–42 w groups, respectively. There were significant differences in the dMVL between the four regions in age groups ≤30w (P = 0.033) and 31–34w (0.017). Both MI and dMVL showed that delta brushes became higher in the occipital region from 32 to 36 PMW. The mean phase angle of coupling concentrated around either 0° or 180° for all age groups. PAC analysis revealed the spatiotemporal relations of alpha–beta activities that are modulated by slow delta waves in neonatal delta brushes. The delta brushes appeared to be at a maximum around 32–36 PMW with the predominant occipital distribution. The PAC of the delta brush might represent the cortical neuronal fast activity that is modulated by slow delta waves of subcortical regions during a particular neonatal period. Delta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed alpha-beta activity in delta brushes to elucidate the spatiotemporal developments of the delta brush with post-menstrual weeks (PMW).INTRODUCTIONDelta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed alpha-beta activity in delta brushes to elucidate the spatiotemporal developments of the delta brush with post-menstrual weeks (PMW).The subjects were 18 neurologically intact patients (seven girls). We analyzed EEG within 42 PMW. Patients were divided into four age groups as follows: PMW ≤30w; 31-34 w; 35-38 w; and 39-42 w. We selected up to three epochs of 2-minute EEG segments including delta brushes. We calculated the modulation index (MI), direct mean vector length (dMVL), and mean of phase angle of coupling by PAC between slow waves (0.5-1.5 Hz) and fast activities (8-25 Hz) in four regions (F: Fp1 and Fp2, C: C3 and C4, T: T3 and T4, O: O1 and O2).METHODSThe subjects were 18 neurologically intact patients (seven girls). We analyzed EEG within 42 PMW. Patients were divided into four age groups as follows: PMW ≤30w; 31-34 w; 35-38 w; and 39-42 w. We selected up to three epochs of 2-minute EEG segments including delta brushes. We calculated the modulation index (MI), direct mean vector length (dMVL), and mean of phase angle of coupling by PAC between slow waves (0.5-1.5 Hz) and fast activities (8-25 Hz) in four regions (F: Fp1 and Fp2, C: C3 and C4, T: T3 and T4, O: O1 and O2).We collected data from 18 patients and 31 epochs between 29 and 42 PMW, which comprised one, four, five, and eight patients, and two, seven, eight, and 14 epochs in the ≤30w, 31-34 w, 35-38 w, and 39-42 w groups, respectively. There were significant differences in the dMVL between the four regions in age groups ≤30w (P = 0.033) and 31-34w (0.017). Both MI and dMVL showed that delta brushes became higher in the occipital region from 32 to 36 PMW. The mean phase angle of coupling concentrated around either 0° or 180° for all age groups.RESULTSWe collected data from 18 patients and 31 epochs between 29 and 42 PMW, which comprised one, four, five, and eight patients, and two, seven, eight, and 14 epochs in the ≤30w, 31-34 w, 35-38 w, and 39-42 w groups, respectively. There were significant differences in the dMVL between the four regions in age groups ≤30w (P = 0.033) and 31-34w (0.017). Both MI and dMVL showed that delta brushes became higher in the occipital region from 32 to 36 PMW. The mean phase angle of coupling concentrated around either 0° or 180° for all age groups.PAC analysis revealed the spatiotemporal relations of alpha-beta activities that are modulated by slow delta waves in neonatal delta brushes. The delta brushes appeared to be at a maximum around 32-36 PMW with the predominant occipital distribution. The PAC of the delta brush might represent the cortical neuronal fast activity that is modulated by slow delta waves of subcortical regions during a particular neonatal period.CONCLUSIONSPAC analysis revealed the spatiotemporal relations of alpha-beta activities that are modulated by slow delta waves in neonatal delta brushes. The delta brushes appeared to be at a maximum around 32-36 PMW with the predominant occipital distribution. The PAC of the delta brush might represent the cortical neuronal fast activity that is modulated by slow delta waves of subcortical regions during a particular neonatal period. |
ArticleNumber | 135211 |
Author | Otsubo, Hiroshi Shibata, Takashi |
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BackLink | https://www.ncbi.nlm.nih.gov/pubmed/32593774$$D View this record in MEDLINE/PubMed |
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CitedBy_id | crossref_primary_10_1016_j_nbd_2022_105863 crossref_primary_10_1186_s12887_023_04421_3 crossref_primary_10_1016_j_jneumeth_2022_109578 crossref_primary_10_26599_BSA_2023_9050025 crossref_primary_10_1016_j_compbiomed_2024_109477 crossref_primary_10_1097_WNP_0000000000000828 crossref_primary_10_3389_fnins_2022_803708 crossref_primary_10_1140_epjs_s11734_023_01071_5 crossref_primary_10_3390_brainsci12070854 crossref_primary_10_1016_j_cmpb_2021_106593 crossref_primary_10_1016_j_clinph_2022_02_010 crossref_primary_10_3389_fnint_2022_933426 |
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Keywords | MVL HFOs Direct mean vector length PACT Electroencephalography White matter dMVL Modulation index PAC Neonate Developing modulator PMW MI SOZ |
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Snippet | •Phase-amplitude coupling identified delta brushes as complex waveforms of slow delta waves and alpha-beta activities.•Phase-amplitude coupling of delta... Delta brushes are an indicator of brain maturity on a neonatal EEG. We investigated phase-amplitude coupling (PAC) between slow delta waves and superimposed... |
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SubjectTerms | Brain - growth & development Child Development - physiology Delta Rhythm - physiology Developing modulator Direct mean vector length Electroencephalography Electroencephalography - methods Female Humans Infant, Newborn Male Modulation index Neonate Neurogenesis - physiology White matter |
Title | Phase-amplitude coupling of delta brush unveiling neuronal modulation development in the neonatal brain |
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