Coherence of EEG Frequency Components While Performing Alternative Finger Movements in Women with Different Modal Frequency of Alpha-rhythm
DOI:
https://doi.org/10.29038/2617-4723-2015-313-112-118Ключові слова:
coherence, EEG frequency components, mode of the EEG α-rhythm, women, alternate finger movementsАнотація
A test group consisting of 113 right-hand healthy women from the ages of 19 to 21 was divided into two groups according to the average magnitude of their individual modal α- frequency – groups with high and low values of individual modal α- frequency. The ideal time of a simple sensorimotor reaction and choice-point behavior as well as speed capabilities of nervous processes during the tapping test, and measures of the coherence of EEG frequency components individually determined for each testee in quiescent intervals and while performing alternative movements by the right hand fingers were evaluated. Women with high modal α-frequency had better speed capabilities of nervous processes. Women with a high IαF had a less time of simple and complex reactions. The increase of coherence coefficients was seen throughout the EEG frequency spectrum in women performing alternate movements by fingers. Alternate movements of fingers performed by women with low α-frequency are provided by even higher frequency coherence of the EEG components in frontal, anterior temporal and central areas and by much lower frequency in the posterior temporal and parietal-occipital cortex areas compared to testees with high α-frequency.
Посилання
1. Stopping movements: when others slow us down [A. Cavallo, C. Catmur, S. Sowden, F. Iani, C. Becchio] / European J of Neurosci. – 2014. – 40(5). – P. 2842–2849.
2. Ioffe M. Brain mechanisms of formation of new movements in the training: the evolution of the classical ideas. / M. Ioffe // J of Higher Nervous Activity. – 2003. –53 (1). – P. 5–21 (in Russian).
3. Electroencephalographic studies of skilled psychomotor performance / B. D. Hatfield, A. J. Haufler, T. M. Hung, T. W. Spalding // J of Clinical Neurophysiology. – 2004. – 21(3). – P. 144.
4. Kurganskiy A.V. Directed cortico-cortical functional interactions in the early stages of serial learning in adults and children 7–8 years / A. V. Kurganskiy, P. P. Grigal // Human Physiology. – 2010. – 36(4). – P. 4–56 (in Russian).
5. Pavlovych O. S. Cortical Arousal Strategies in Left-handers during the Aural Perception and Manual Playback of Mono and Polyphonic Rhythmical Patterns / O. S. Pavlovych, O. A. Kotyk, A. G. Morenko / J of Life Sciences. – 2012. – 6 (12). – P. 1408–1413.
6. Rhodes B. Learning and production of movement sequences: behavioral, neurophysiological and modeling perspectives. / B. Rhodes, J. Bullock, W. B. Verwey, B. B. Averbeck // Human Movement Science. – 2004. – 2. – P. 699.
7. Sheth B. R. How the lack of visuomotor feedback affects even the early stages of goal-directed pointing movements / B. R. Sheth, S. Shimojo // Experimental Brain Research. – 2002. – 143(2). – P.181–190.
8. Wise S. P. Motor skill learning. / S. P. Wise, D. T. Willingham // Encyclopedia of Neuroscience. – 2009. – 5. – P. 1057–1066.
9. Bazanova O. M. Individual figures EEG alpha activity and non-verbal creativity / O. M. Bazanova, L. I. Aftanas // Russian physiological journal named Sechenov. – 2007. – 93 (1). – P. 14–26 (in Russian).
10.Morenko A. G. Features of the cortical activity of men having a high or low alpha-frequency background of the EEG while performing alternate finger movements / A. G. Morenko, A. V. Tsjos, I. Ya. Kotsan // Helth Problems of Civilization. – 2014. – 8(1). – P. 24–31.
11. Peak individual alpha frequency qualifies as a stable neurophysiological trait marker in healthy younger and older adults. / [ Th. H. Grandy, M. Werkle-Bergner, Ch. Chicherio, F. Schmiedek et al.] // Psychophisiology. – 2013. – 50. – P. 570–582.
12.Electroencephalographic spectral power in writer’s cramp patients: evidence for motor cortex malfunctioning during the cramp / [ R. Kristeva, V. Chakarov, F. Losch, S. Hummel et al // NeuroImage. – 2005. – 27(3). – P. 706–714.
13.Genetic influences on dynamic complexity of brain oscillations / A. Anokhin, V. Muller, U. Lindenberger, A. Heath et al // Neurosci Letters. – 2006. –397(1–2). – P. 93–98.
14.Begleiter H. Genetics of human brain oscillations / H. Begleiter, B. Porjesz // International J of Psychophysiology. – 2006. – 60 (2). – P. 162–171.
15.Klimesch W. EEG alpha oscillations: the inhibition–timing hypothesis / W. Klimesch, P. Sauseng, S. Hanslmayr // Brain Research Reviews. – 2007. – 53. – P. 63–88.
16.Angelakis E. Peak alpha frequency: an electroencephalographic measure of cognitive preparedness / E. Angelakis, J. F. Lubar, S. Stathopoulou // Clinical Neurophysiology. – 2004. – 115. – P. 887–897.
17.Kaplan A.Ya. Dynamics of segment characteristics of EEG alpha-activity of man at rest and in cognitive load / A. Ya. Kaplan, S. V. Borisov // J of Higher Nervous Activity. – 2003. – 53(1). – P. 22–32 (in Russian).
18. Page A. J. Inhibition of mechanosensitivity in visceral primary afferents by GABA(B) receptors involves calcium and potassium channels / A. J. Page, T. A. O’Donnell, L. A. Blackshaw // Neuroscience. – 2006. – 137(2). – P. 627–636.
19.Ng S. C. EEG peak alpha frequency as an indicator for physical fatigue / S. C. Ng, P. Raveendran // Medicon. – 2007. – 16. – P. 517–520.
20. Sperge D. J. Calcium and small-conductance calcium-activated potassium channels in gonadotropin-releasing hormone neurons before, during, and after puberty / D. J. Sperge // J of Endocrinology. – 2007. – 148(5). – P. 2383–2390.
21.Zhavoronkova L. Right-handed and Left-handed: Hemispheric asymmetry of brain potentials of man / L. Zhavoronkova. – Krasnodar : Press Ekoinvest, 2009. – 240 p. (in Russian).
22.Knipst I. N. Dynamics topogram potentials and functional state of the cerebral cortex / I. N. Knipst, N. S. Kurova, A. V. Korinevski. – Moscow : Press Science, 1982. – 166 p. (in Russian).
23.High-frequency brain activity: its possible role in attention, perception and language processing / [F. Pulvermuller, N. Birbaumer, W. Lutzenberger, B. Mohr // Progress in Neurobiology. – 1997. – 52(5). – P. 427–445.
2. Ioffe M. Brain mechanisms of formation of new movements in the training: the evolution of the classical ideas. / M. Ioffe // J of Higher Nervous Activity. – 2003. –53 (1). – P. 5–21 (in Russian).
3. Electroencephalographic studies of skilled psychomotor performance / B. D. Hatfield, A. J. Haufler, T. M. Hung, T. W. Spalding // J of Clinical Neurophysiology. – 2004. – 21(3). – P. 144.
4. Kurganskiy A.V. Directed cortico-cortical functional interactions in the early stages of serial learning in adults and children 7–8 years / A. V. Kurganskiy, P. P. Grigal // Human Physiology. – 2010. – 36(4). – P. 4–56 (in Russian).
5. Pavlovych O. S. Cortical Arousal Strategies in Left-handers during the Aural Perception and Manual Playback of Mono and Polyphonic Rhythmical Patterns / O. S. Pavlovych, O. A. Kotyk, A. G. Morenko / J of Life Sciences. – 2012. – 6 (12). – P. 1408–1413.
6. Rhodes B. Learning and production of movement sequences: behavioral, neurophysiological and modeling perspectives. / B. Rhodes, J. Bullock, W. B. Verwey, B. B. Averbeck // Human Movement Science. – 2004. – 2. – P. 699.
7. Sheth B. R. How the lack of visuomotor feedback affects even the early stages of goal-directed pointing movements / B. R. Sheth, S. Shimojo // Experimental Brain Research. – 2002. – 143(2). – P.181–190.
8. Wise S. P. Motor skill learning. / S. P. Wise, D. T. Willingham // Encyclopedia of Neuroscience. – 2009. – 5. – P. 1057–1066.
9. Bazanova O. M. Individual figures EEG alpha activity and non-verbal creativity / O. M. Bazanova, L. I. Aftanas // Russian physiological journal named Sechenov. – 2007. – 93 (1). – P. 14–26 (in Russian).
10.Morenko A. G. Features of the cortical activity of men having a high or low alpha-frequency background of the EEG while performing alternate finger movements / A. G. Morenko, A. V. Tsjos, I. Ya. Kotsan // Helth Problems of Civilization. – 2014. – 8(1). – P. 24–31.
11. Peak individual alpha frequency qualifies as a stable neurophysiological trait marker in healthy younger and older adults. / [ Th. H. Grandy, M. Werkle-Bergner, Ch. Chicherio, F. Schmiedek et al.] // Psychophisiology. – 2013. – 50. – P. 570–582.
12.Electroencephalographic spectral power in writer’s cramp patients: evidence for motor cortex malfunctioning during the cramp / [ R. Kristeva, V. Chakarov, F. Losch, S. Hummel et al // NeuroImage. – 2005. – 27(3). – P. 706–714.
13.Genetic influences on dynamic complexity of brain oscillations / A. Anokhin, V. Muller, U. Lindenberger, A. Heath et al // Neurosci Letters. – 2006. –397(1–2). – P. 93–98.
14.Begleiter H. Genetics of human brain oscillations / H. Begleiter, B. Porjesz // International J of Psychophysiology. – 2006. – 60 (2). – P. 162–171.
15.Klimesch W. EEG alpha oscillations: the inhibition–timing hypothesis / W. Klimesch, P. Sauseng, S. Hanslmayr // Brain Research Reviews. – 2007. – 53. – P. 63–88.
16.Angelakis E. Peak alpha frequency: an electroencephalographic measure of cognitive preparedness / E. Angelakis, J. F. Lubar, S. Stathopoulou // Clinical Neurophysiology. – 2004. – 115. – P. 887–897.
17.Kaplan A.Ya. Dynamics of segment characteristics of EEG alpha-activity of man at rest and in cognitive load / A. Ya. Kaplan, S. V. Borisov // J of Higher Nervous Activity. – 2003. – 53(1). – P. 22–32 (in Russian).
18. Page A. J. Inhibition of mechanosensitivity in visceral primary afferents by GABA(B) receptors involves calcium and potassium channels / A. J. Page, T. A. O’Donnell, L. A. Blackshaw // Neuroscience. – 2006. – 137(2). – P. 627–636.
19.Ng S. C. EEG peak alpha frequency as an indicator for physical fatigue / S. C. Ng, P. Raveendran // Medicon. – 2007. – 16. – P. 517–520.
20. Sperge D. J. Calcium and small-conductance calcium-activated potassium channels in gonadotropin-releasing hormone neurons before, during, and after puberty / D. J. Sperge // J of Endocrinology. – 2007. – 148(5). – P. 2383–2390.
21.Zhavoronkova L. Right-handed and Left-handed: Hemispheric asymmetry of brain potentials of man / L. Zhavoronkova. – Krasnodar : Press Ekoinvest, 2009. – 240 p. (in Russian).
22.Knipst I. N. Dynamics topogram potentials and functional state of the cerebral cortex / I. N. Knipst, N. S. Kurova, A. V. Korinevski. – Moscow : Press Science, 1982. – 166 p. (in Russian).
23.High-frequency brain activity: its possible role in attention, perception and language processing / [F. Pulvermuller, N. Birbaumer, W. Lutzenberger, B. Mohr // Progress in Neurobiology. – 1997. – 52(5). – P. 427–445.
Завантаження
Опубліковано
2015-12-24
Номер
Розділ
Фізіологія людини і тварин
Як цитувати
Coherence of EEG Frequency Components While Performing Alternative Finger Movements in Women with Different Modal Frequency of Alpha-rhythm. (2015). Нотатки сучасної біології, 313(12), 112-118. https://doi.org/10.29038/2617-4723-2015-313-112-118
