Neural source estimation from a time-frequency component of somatic evoked high-frequency magnetic oscillations to posterior tibial nerve stimulation

被引:20
|
作者
Sakuma, K
Sekihara, K
Hashimoto, I
机构
[1] JST Mind Articulat Project, Tokyo 1130034, Japan
[2] Tokyo Inst Psychiat, Dept Psychophysiol, Setagaya Ku, Tokyo 1560057, Japan
关键词
somatosensory colter; high-frequency magnetic oscillations; posterior tibial nerve; magnetoencephalography; time-frequency components; multiple signal classification algorithm;
D O I
10.1016/S1388-2457(99)00120-0
中图分类号
R74 [神经病学与精神病学];
学科分类号
摘要
Objective: High frequency oscillations (HFOs) evoked by posterior tibial nerve stimulation were recorded using magnetoencephalography (MEG). Time-frequency domain multiple signal classification (TF-MUSIC) algorithm was applied, and the usefulness of this method was demonstrated. Methods: Ten normal subjects were studied. To localize sources for the HFOs of those somatosensory evoked fields, we applied two kinds of methods: the single moving dipole (SMD) method and the TF-MUSIC method. The SMD method was applied after digitally band-pass filtering the somatosensory response with a bandwidth of 500-800 Hz. To estimate the locations of sources with the TF-MUSIC algorithm, we first set the target region on the spectrogram of the somatosensory responses. Then, the procedure described in Section 2.2 was applied with this target region. Results: A clear, isolated region was detected in 6 out of 10 subjects using a time-frequency spectrogram. The averaged distance of the dipole sources between the HFOs and the underlying P37m using the TF-MUSIC algorithm was smaller than using the SMD method. Conclusions: The TF-MUSIC algorithm is suitable for extracting a target response whose spectrum changes significantly during the observation. (C) 1999 Elsevier Science Ireland Ltd. All rights reserved.
引用
收藏
页码:1585 / 1588
页数:4
相关论文
共 50 条
  • [31] Bilateral median nerve stimulation and High-Frequency Oscillations unveil interhemispheric inhibition of primary sensory cortex
    Norata, Davide
    Musumeci, Gabriella
    Todisco, Antonio
    Cruciani, Alessandro
    Motolese, Francesco
    Capone, Fioravante
    Lattanzi, Simona
    Ranieri, Federico
    Di Lazzaro, Vincenzo
    Pilato, Fabio
    CLINICAL NEUROPHYSIOLOGY, 2024, 165 : 154 - 165
  • [32] High-frequency repetitive transcranial magnetic stimulation regulates neural oscillations of the hippocampus and prefrontal cortex in mice by modulating endocannabinoid signalling
    Peng, Zheng-Wu
    Zhou, Cui-Hong
    Xue, Shan-Shan
    Yu, Huan
    Shi, Qing-Qing
    Xue, Fen
    Chen, Yi-Huan
    Tan, Qing-Rong
    Wang, Hua-Ning
    JOURNAL OF AFFECTIVE DISORDERS, 2023, 331 : 217 - 228
  • [33] Time-frequency cross-coupling between cortical low-frequency neuronal calcium oscillations and blood oxygen metabolism evoked by ultrasound stimulation
    Su, Zhaocheng
    Yan, Jiaqing
    Ji, Hui
    Liu, Mengyang
    Zhang, Xiangjian
    Li, Xiaoli
    Yuan, Yi
    CEREBRAL CORTEX, 2023, 33 (08) : 4665 - 4676
  • [34] EEG dipole source comparison of median nerve N20 and high-frequency oscillations (HFOs)
    Gaetz, W
    Boor, R
    Pang, EW
    Taylor, MJ
    RECENT ADVANCES IN HUMAN NEUROPHYSIOLOGY, 1998, 1162 : 20 - 26
  • [35] Real-time suppression and amplification of frequency-specific neural activity using stimulation evoked oscillations
    Sanabria, David Escobar
    Johnson, Luke A.
    Yu, Ying
    Busby, Zachary
    Nebeck, Shane
    Zhang, Jianyu
    Harel, Noam
    Johnson, Matthew D.
    Molnar, Gregory F.
    Vitek, Jerrold L.
    BRAIN STIMULATION, 2020, 13 (06) : 1732 - 1742
  • [36] Deep brain stimulation for Parkinson's disease modulates high-frequency evoked and spontaneous neural activity
    Sinclair, Nicholas C.
    McDermott, Hugh J.
    Fallon, James B.
    Perera, Thushara
    Brown, Peter
    Bulluss, Kristian J.
    Thevathasan, Wesley
    NEUROBIOLOGY OF DISEASE, 2019, 130
  • [37] Analysis of time-frequency characteristics and coherence of local field potentials during working memory task of rats after high-frequency repeated transcranial magnetic stimulation
    Xu G.
    Wang N.
    Guo M.
    Zhang T.
    Tong Y.
    Shengwu Yixue Gongchengxue Zazhi/Journal of Biomedical Engineering, 2020, 37 (05): : 756 - 764
  • [38] Reciprocal modulation of somatosensory evoked N20m primary response and high-frequency oscillations by interference stimulation
    Hashimoto, I
    Kimura, T
    Fukushima, T
    Iguchi, Y
    Saito, Y
    Terasaki, O
    Sakuma, K
    CLINICAL NEUROPHYSIOLOGY, 1999, 110 (08) : 1445 - 1451
  • [39] CORTICAL REPRESENTATION OF HIGH-FREQUENCY OSCILLATIONS IN LANDAU-KLEFFNER SYNDROME REVEALED BY MAGNETIC SOURCE IMAGING
    Op De Beeck, M.
    Bourguignon, M.
    Carrette, E.
    Boon, P.
    Verhelst, H.
    Goldman, S.
    Van Bogaert, P.
    De Tiege, X.
    EPILEPSIA, 2011, 52 : 177 - 177
  • [40] Effect of the combination of high-frequency repetitive magnetic stimulation and neurotropin on injured sciatic nerve regeneration in rats
    Jie Chen
    Xian-Ju Zhou
    Rong-Bin Sun
    Neural Regeneration Research, 2020, 15 (01) : 145 - 151