2014
DOI: 10.1038/nmeth.2810
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Similarity network fusion for aggregating data types on a genomic scale

Abstract: Recent technologies have made it cost-effective to collect diverse types of genome-wide data. Computational methods are needed to combine these data to create a comprehensive view of a given disease or a biological process. Similarity network fusion (SNF) solves this problem by constructing networks of samples (e.g., patients) for each available data type and then efficiently fusing these into one network that represents the full spectrum of underlying data. For example, to create a comprehensive view of a dis… Show more

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Cited by 1,615 publications
(1,803 citation statements)
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References 21 publications
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“…Namely, instead of processing large-scale matrices constructed over a large number of genes, SNF method fuses much smaller matrices representing networks constructed over patients (i.e., samples), which makes the convergence faster. SNF is shown to be robust to noise and when applied on five different cancer types from TCGA database, it was shown to be effective in prediction of patient survival outcomes [131]. Proteomics This article is protected by copyright.…”
Section: The First Methods That Deals With Detection Of Contradictory mentioning
confidence: 99%
See 1 more Smart Citation
“…Namely, instead of processing large-scale matrices constructed over a large number of genes, SNF method fuses much smaller matrices representing networks constructed over patients (i.e., samples), which makes the convergence faster. SNF is shown to be robust to noise and when applied on five different cancer types from TCGA database, it was shown to be effective in prediction of patient survival outcomes [131]. Proteomics This article is protected by copyright.…”
Section: The First Methods That Deals With Detection Of Contradictory mentioning
confidence: 99%
“…Matrix Factorization unsupervised JIVE [130] Cancer patient stratification by integrating mRNA expression and miRNA expression data. Network-based unsupervised SNF [131] Patient subtyping by integrating patient similarity networks constructed from mRNA expression, DNA methylation and miRNA expression data.…”
Section: Databasementioning
confidence: 99%
“…Although some studies have and will continue to work successfully on a single omic level, recent decades have seen an ever-increasing body of work where several distinct omics datasets, including also other biological or clinical levels, are analysed conjointly using multiscale integrative methods such as SNF (similarity network fusion) [69]. This combination of levels has the potential to provide researchers with simultaneous information from several compartments of the biological system of interest, thus facilitating the modelling of the dynamic nonlinear relationships that characterise emergent properties ( phenotypes) and complex diseases.…”
Section: Multilevel Analysis: the True Revolutionmentioning
confidence: 99%
“…Collaborative affinity metric fusion originates from the self-smoothing operator [27], which can robustly measure the affinity by propagating the similarities among auxiliary images when only one type of feature is utilized and is fully proposed in [19] for natural image retrieval by fusing multiple metrics. Afterwards, collaborative affinity metric fusion is utilized in genome-wide data aggregation [28] and multi-cue fusion for salient object detection [29]. In this paper, we utilize collaborative affinity metric fusion to fully incorporate the merit of multiple features introduced in Section 2 for content-based high-resolution remote sensing image retrieval (CB-HRRS-IR).…”
Section: Collaborative Affinity Metric Fusionmentioning
confidence: 99%