Network-based statistic: Identifying differences in brain networks

被引:1954
|
作者
Zalesky, Andrew [1 ,2 ]
Fornito, Alex [1 ,3 ]
Bullmore, Edward T. [3 ]
机构
[1] Univ Melbourne & Melbourne Hlth, Dept Psychiat, Melbourne Neuropsychiat Ctr, Melbourne, Vic, Australia
[2] Univ Melbourne, Melbourne Sch Engn, Dept Elect & Elect Engn, Melbourne, Vic 3010, Australia
[3] Univ Cambridge, Dept Psychiat, Behav & Clin Neurosci Inst, Cambridge, England
基金
澳大利亚研究理事会; 英国医学研究理事会;
关键词
Network; Graph; Functional connectivity; Structural connectivity; Resting-state fMRI; Diffusion MRI; Clustering; Schizophrenia; STATE FUNCTIONAL CONNECTIVITY; SMALL-WORLD; CORTICAL NETWORKS; TOPOLOGICAL PATTERNS; STRUCTURAL NETWORKS; ANATOMICAL NETWORKS; ORGANIZATION; PERMUTATION; VOXEL; EFFICIENCY;
D O I
10.1016/j.neuroimage.2010.06.041
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
Large-scale functional or structural brain connectivity can be modeled as a network, or graph. This paper presents a statistical approach to identify connections in such a graph that may be associated with a diagnostic status in case-control studies, changing psychological contexts in task-based studies, or correlations with various cognitive and behavioral measures. The new approach, called the network-based statistic (NBS), is a method to control the family-wise error rate (in the weak sense) when mass-univariate testing is performed at every connection comprising the graph. To potentially offer a substantial gain in power, the NBS exploits the extent to which the connections comprising the contrast or effect of interest are interconnected. The NBS is based on the principles underpinning traditional cluster-based thresholding of statistical parametric maps. The purpose of this paper is to: (i) introduce the NBS for the first time; (ii) evaluate its power with the use of receiver operating characteristic (ROC) curves; and, (iii) demonstrate its utility with application to a real case-control study involving a group of people with schizophrenia for which resting-state functional MRI data were acquired. The NBS identified a expansive dysconnected subnetwork in the group with schizophrenia, primarily comprising fronto-temporal and occipito-temporal dysconnections, whereas a mass-univariate analysis controlled with the false discovery rate failed to identify a subnetwork. (C) 2010 Elsevier Inc. All rights reserved.
引用
收藏
页码:1197 / 1207
页数:11
相关论文
共 50 条
  • [21] Statistical inference in brain graphs using threshold-free network-based statistics
    Baggio, Hugo C.
    Abos, Alexandra
    Segura, Barbara
    Campabadal, Anna
    Garcia-Diaz, Anna
    Uribe, Carme
    Compta, Yaroslau
    Jose Marti, Maria
    Valldeoriola, Francesc
    Junque, Carme
    HUMAN BRAIN MAPPING, 2018, 39 (06) : 2289 - 2302
  • [22] Identifying aMCI with functional connectivity network characteristics based on subtle AAL atlas
    Zhuo, Zhizheng
    Mo, Xiao
    Ma, Xiangyu
    Han, Ying
    Li, Haiyun
    BRAIN RESEARCH, 2018, 1696 : 81 - 90
  • [23] Topological Organization of Functional Brain Networks in Healthy Children: Differences in Relation to Age, Sex, and Intelligence
    Wu, Kai
    Taki, Yasuyuki
    Sato, Kazunori
    Hashizume, Hiroshi
    Sassa, Yuko
    Takeuchi, Hikaru
    Thyreau, Benjamin
    He, Yong
    Evans, Alan C.
    Li, Xiaobo
    Kawashima, Ryuta
    Fukuda, Hiroshi
    PLOS ONE, 2013, 8 (02):
  • [24] Sparse network-based models for patient classification using fMRI
    Rosa, Maria J.
    Portugal, Liana
    Hahn, Tim
    Fallgatter, Andreas J.
    Garrido, Marta I.
    Shawe-Taylor, John
    Mourao-Miranda, Janaina
    NEUROIMAGE, 2015, 105 : 493 - 506
  • [25] A network-based explanation of inequality perceptions
    Schulz, Jan
    Mayerhoffer, Daniel M.
    Gebhard, Anna
    SOCIAL NETWORKS, 2022, 70 : 306 - 324
  • [26] Effects of brain network construction on individual differences of topological properties
    Yang, Cheng
    Nie, Shengdong
    CHINESE SCIENCE BULLETIN-CHINESE, 2019, 64 (21): : 2216 - 2224
  • [27] THE EFFECTS OF MUSIC ON BRAIN FUNCTIONAL NETWORKS: A NETWORK ANALYSIS
    Wu, J.
    Zhang, J.
    Ding, X.
    Li, R.
    Zhou, C.
    NEUROSCIENCE, 2013, 250 : 49 - 59
  • [28] Which networks permit stable allocations? A theory of network-based comparisons
    Cheng, Chen
    Xing, Yiqing
    THEORETICAL ECONOMICS, 2022, 17 (04) : 1473 - 1499
  • [29] Graph Neural Network-Based Channel Tracking for Massive MIMO Networks
    Yang, Yindi
    Zhang, Shun
    Gao, Feifei
    Ma, Jianpeng
    Dobre, Octavia A.
    IEEE COMMUNICATIONS LETTERS, 2020, 24 (08) : 1747 - 1751
  • [30] Dynamic brain network evolution in normal aging based on computational experiments
    Chen, Xi
    Wang, Miao
    He, Jiping
    Li, Wei
    NEUROCOMPUTING, 2017, 219 : 483 - 493