Joint Discriminative and Representative Feature Selection for Alzheimer's Disease Diagnosis

被引:2
作者
Zhu, Xiaofeng [1 ,2 ]
Suk, Heung-Il [3 ]
Thung, Kim-Han [1 ,2 ]
Zhu, Yingying [1 ,2 ]
Wu, Guorong [1 ,2 ]
Shen, Dinggang [1 ,2 ]
机构
[1] Univ North Carolina Chapel Hill, Dept Radiol, Chapel Hill, NC 27514 USA
[2] Univ North Carolina Chapel Hill, BRIC, Chapel Hill, NC 27514 USA
[3] Korea Univ, Dept Brain & Cognit Engn, Seoul, South Korea
来源
MACHINE LEARNING IN MEDICAL IMAGING, MLMI 2016 | 2016年 / 10019卷
关键词
CANONICAL FEATURE-SELECTION; PREDICTION; REGRESSION; ATROPHY;
D O I
10.1007/978-3-319-47157-0_10
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
Neuroimaging data have been widely used to derive possible biomarkers for Alzheimer's Disease (AD) diagnosis. As only certain brain regions are related to AD progression, many feature selection methods have been proposed to identify informative features (i.e., brain regions) to build an accurate prediction model. These methods mostly only focus on the feature-target relationship to select features which are discriminative to the targets (e.g., diagnosis labels). However, since the brain regions are anatomically and functionally connected, there could be useful intrinsic relationships among features. In this paper, by utilizing both the feature-target and feature-feature relationships, we propose a novel sparse regression model to select informative features which are discriminative to the targets and also representative to the features. We argue that the features which are representative (i.e., can be used to represent many other features) are important, as they signify strong "connection" with other ROIs, and could be related to the disease progression. We use our model to select features for both binary and multi-class classification tasks, and the experimental results on the Alzheimer's Disease Neuroimaging Initiative (ADNI) dataset show that the proposed method outperforms other comparison methods considered in this work.
引用
收藏
页码:77 / 85
页数:9
相关论文
共 22 条
[1]  
[Anonymous], 2000, Pattern Classification, DOI DOI 10.1007/978-3-319-57027-3_4
[2]  
[Anonymous], 2015, BRAIN STRUCT FUNCT
[3]   Sparse Subspace Clustering: Algorithm, Theory, and Applications [J].
Elhamifar, Ehsan ;
Vidal, Rene .
IEEE TRANSACTIONS ON PATTERN ANALYSIS AND MACHINE INTELLIGENCE, 2013, 35 (11) :2765-2781
[4]   Imaging cerebral atrophy: normal ageing to Alzheimer's disease [J].
Fox, NC ;
Schott, JM .
LANCET, 2004, 363 (9406) :392-394
[5]   Manifold alignment and transfer learning for classification of alzheimer’s disease [J].
Guerrero, Ricardo ;
Ledig, Christian ;
Rueckert, Daniel .
Lecture Notes in Computer Science (including subseries Lecture Notes in Artificial Intelligence and Lecture Notes in Bioinformatics), 2014, 8679 :77-84
[6]  
He X., 2005, P 18 INT C NEUR INF, P507
[7]   Longitudinal clinical score prediction in Alzheimer's disease with soft-split sparse regression based random forest [J].
Huang, Lei ;
Jin, Yan ;
Gao, Yaozong ;
Thung, Kim-Han ;
Shen, Dinggang .
NEUROBIOLOGY OF AGING, 2016, 46 :180-191
[8]   Robust Recovery of Subspace Structures by Low-Rank Representation [J].
Liu, Guangcan ;
Lin, Zhouchen ;
Yan, Shuicheng ;
Sun, Ju ;
Yu, Yong ;
Ma, Yi .
IEEE TRANSACTIONS ON PATTERN ANALYSIS AND MACHINE INTELLIGENCE, 2013, 35 (01) :171-184
[9]   Baseline and longitudinal patterns of brain atrophy in MCI patients, and their use in prediction of short-term conversion to AD: Results from ADNI [J].
Misra, Chandan ;
Fan, Yong ;
Davatzikos, Christos .
NEUROIMAGE, 2009, 44 (04) :1415-1422
[10]   Semi-parametric optimization for missing data imputation [J].
Qin, Yongsong ;
Zhang, Shichao ;
Zhu, Xiaofeng ;
Zhang, Jilian ;
Zhang, Chengqi .
APPLIED INTELLIGENCE, 2007, 27 (01) :79-88