Outcome-guided Bayesian clustering for disease subtype discovery using high-dimensional transcriptomic data

被引:0
|
作者
Meng, Lingsong [1 ]
Huo, Zhiguang [1 ,2 ]
机构
[1] Univ Florida, Dept Biostat, Gainesville, FL USA
[2] 2004 Mowry Rd, Gainesville, FL 32611 USA
关键词
Outcome-guided clustering; Bayesian method; Gaussian mixed model; gibbs sampling; INTEGRATED GENOMIC ANALYSIS; SPARSE K-MEANS; BREAST-CANCER; GENE-EXPRESSION; MOLECULAR SUBTYPES; RELEVANT SUBTYPES; MODEL; IDENTIFICATION; SELECTION; SURVIVAL;
D O I
10.1080/02664763.2024.2362275
中图分类号
O21 [概率论与数理统计]; C8 [统计学];
学科分类号
020208 ; 070103 ; 0714 ;
摘要
Due to the tremendous heterogeneity of disease manifestations, many complex diseases that were once thought to be single diseases are now considered to have disease subtypes. Disease subtyping analysis, that is the identification of subgroups of patients with similar characteristics, is the first step to accomplish precision medicine. With the advancement of high-throughput technologies, omics data offers unprecedented opportunity to reveal disease subtypes. As a result, unsupervised clustering analysis has been widely used for this purpose. Though promising, the subtypes obtained from traditional quantitative approaches may not always be clinically meaningful (i.e. correlate with clinical outcomes). On the other hand, the collection of rich clinical data in modern epidemiology studies has the great potential to facilitate the disease subtyping process via omics data and to discovery clinically meaningful disease subtypes. Thus, we developed an outcome-guided Bayesian clustering (GuidedBayesianClustering) method to fully integrate the clinical data and the high-dimensional omics data. A Gaussian mixed model framework was applied to perform sample clustering; a spike-and-slab prior was utilized to perform gene selection; a mixture model prior was employed to incorporate the guidance from a clinical outcome variable; and a decision framework was adopted to infer the false discovery rate of the selected genes. We deployed conjugate priors to facilitate efficient Gibbs sampling. Our proposed full Bayesian method is capable of simultaneously (i) obtaining sample clustering (disease subtype discovery); (ii) performing feature selection (select genes related to the disease subtype); and (iii) utilizing clinical outcome variable to guide the disease subtype discovery. The superior performance of the GuidedBayesianClustering was demonstrated through simulations and applications of breast cancer expression data and Alzheimer's disease. An R package has been made publicly available on GitHub to improve the applicability of our method.
引用
收藏
页码:183 / 207
页数:25
相关论文
共 50 条
  • [1] Outcome-guided sparse K-means for disease subtype discovery via integrating phenotypic data with high-dimensional transcriptomic data
    Meng, Lingsong
    Avram, Dorina
    Tseng, George
    Huo, Zhiguang
    JOURNAL OF THE ROYAL STATISTICAL SOCIETY SERIES C-APPLIED STATISTICS, 2022, 71 (02) : 352 - 375
  • [2] OUTCOME-GUIDED DISEASE SUBTYPING BY GENERATIVE MODEL AND WEIGHTED JOINT LIKELIHOOD IN TRANSCRIPTOMIC APPLICATIONS
    Li, Yujia
    Liu, Peng
    Wang, Wenjia
    Ong, Wei
    Fang, Yusi
    Rren, Zhao
    Tang, Lu
    Celedon, Juan c.
    Oesterreich, Steffi
    Tseng, George c.
    ANNALS OF APPLIED STATISTICS, 2024, 18 (03) : 1947 - 1964
  • [3] Integrative clustering methods for high-dimensional molecular data
    Chalise, Prabhakar
    Koestler, Devin C.
    Bimali, Milan
    Yu, Qing
    Fridley, Brooke L.
    TRANSLATIONAL CANCER RESEARCH, 2014, 3 (03) : 202 - 216
  • [4] Bayesian Function-on-Scalars Regression for High-Dimensional Data
    Kowal, Daniel R.
    Bourgeois, Daniel C.
    JOURNAL OF COMPUTATIONAL AND GRAPHICAL STATISTICS, 2020, 29 (03) : 629 - 638
  • [5] Feature selection using autoencoders with Bayesian methods to high-dimensional data
    Shu, Lei
    Huang, Kun
    Jiang, Wenhao
    Wu, Wenming
    Liu, Hongling
    JOURNAL OF INTELLIGENT & FUZZY SYSTEMS, 2021, 41 (06) : 7397 - 7406
  • [6] Sparse Bayesian hierarchical modeling of high-dimensional clustering problems
    Lian, Heng
    JOURNAL OF MULTIVARIATE ANALYSIS, 2010, 101 (07) : 1728 - 1737
  • [7] A Bayesian clustering approach for detecting gene-gene interactions in high-dimensional genotype data
    Chen, Sui-Pi
    Huang, Guan-Hua
    STATISTICAL APPLICATIONS IN GENETICS AND MOLECULAR BIOLOGY, 2014, 13 (03) : 275 - 297
  • [8] Guided Rule Discovery in XCS for High-Dimensional Classification Problems
    Abedini, Mani
    Kirley, Michael
    AI 2011: ADVANCES IN ARTIFICIAL INTELLIGENCE, 2011, 7106 : 1 - 10
  • [9] Spectral clustering of high-dimensional data exploiting sparse representation vectors
    Wu, Sen
    Feng, Xiaodong
    Zhou, Wenjun
    NEUROCOMPUTING, 2014, 135 : 229 - 239
  • [10] Nonlinear Causal Discovery for High-Dimensional Deterministic Data
    Zeng, Yan
    Hao, Zhifeng
    Cai, Ruichu
    Xie, Feng
    Huang, Libo
    Shimizu, Shohei
    IEEE TRANSACTIONS ON NEURAL NETWORKS AND LEARNING SYSTEMS, 2023, 34 (05) : 2234 - 2245