BISON: bi-clustering of spatial omics data with feature selection.

IF 5.4
Bencong Zhu, Alberto Cassese, Marina Vannucci, Michele Guindani, Qiwei Li
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Abstract

Motivation: The advent of next-generation sequencing-based spatially resolved transcriptomics (SRT) techniques has reshaped genomic studies by enabling high-throughput gene expression profiling while preserving spatial and morphological context. Understanding gene functions and interactions in different spatial domains is crucial, as it can enhance our comprehension of biological mechanisms, such as cancer-immune interactions and cell differentiation in various regions. It is necessary to cluster tissue regions into distinct spatial domains and identify discriminating genes (DGs) that elucidate the clustering result, referred to as spatial domain-specific DGs. Existing methods for identifying these genes typically rely on a two-stage approach, which can lead to the phenomenon known as double-dipping.

Results: To address the challenge, we propose a unified Bayesian latent block model that simultaneously detects a list of DGs contributing to spatial domain identification while clustering these DGs and spatial locations. The efficacy of our proposed method is validated through a series of simulation experiments, and its capability to identify DGs is demonstrated through applications to benchmark SRT datasets.

Availability and implementation: The R/C++ implementation of BISON is available at https://github.com/new-zbc/BISON.

BISON:基于特征选择的空间组学数据双聚类。
动机:下一代基于测序的空间解析转录组学(SRT)技术的出现,通过在保留空间和形态背景的同时实现高通量基因表达谱,重塑了基因组研究。了解不同空间域的基因功能和相互作用是至关重要的,因为它可以增强我们对生物机制的理解,如癌症免疫相互作用和不同区域的细胞分化。有必要将组织区域聚类到不同的空间域,并鉴定能够阐明聚类结果的判别基因,即空间域特异性判别基因(spatial domain-specific discriminating genes, dg)。现有的识别这些基因的方法通常依赖于两阶段的方法,这可能导致被称为双浸的现象。结果:为了解决这一挑战,我们提出了一个统一的贝叶斯潜在块模型,该模型可以同时检测有助于空间域识别的dg列表,同时将这些dg和空间位置聚类。通过一系列模拟实验验证了我们提出的方法的有效性,并通过基准SRT数据集的应用证明了其识别dg的能力。可用性:BISON的R/ c++实现可在https://github.com/new-zbc/BISON.Supplementary上获得信息:补充数据可在Bioinformatics在线获得。
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