Ten quick tips spanning the entire ST research workflow are presented: whether ST suits a given biological question, how to select a platform aligned with study objectives, how to understand and process ST data, and which software tools to employ for analysis and visualization.
Abstract
Spatial transcriptomics (ST) enables genome-wide gene expression profiling while retaining spatial context within tissue sections. Since the foundational work by Ståhl et al. in 2016, the field has expanded rapidly, with diverse platforms now spanning sequencing-based (e.g., Visium, Visium HD, Slide-seq, Stereo-seq, and Seq-Scope) and imaging-based (e.g., MERFISH, Xenium, and CosMx SMI) approaches. The breadth of platforms, data structures, and computational tools, however, can be daunting for newcomers. Here, we present ten quick tips spanning the entire ST research workflow: whether ST suits a given biological question, how to select a platform aligned with study objectives, how to understand and process ST data, and which software tools to employ for analysis and visualization. We further discuss interpreting spatial patterns in biological context, integrating complementary modalities such as single-cell RNA sequencing and spatial proteomics, and leveraging public datasets and sharing results. Finally, we highlight current limitations of ST, particularly the challenge of reconstructing three-dimensional tissue architecture from serial tissue sections. This review provides biologists, bioinformaticians, and clinician-scientists with a concise, platform-neutral roadmap for incorporating ST into research, from experimental design to biological discovery.
This protocol provides an adaptable framework for standard array-based ST datasets and related platforms after dataset- and platform-specific parameter evaluation by emphasizing script-based execution, explicit parameter rationales, expected outputs, and troubleshooting checkpoints.
Hua-Lin Wang, Wei-Jia Chen, Yan Wu et al.· Journal of Visualized Experi...· 0 citations
Spatial transcriptomics (ST) integrates spatial information with gene expression data to quantify mRNA levels across diverse genes within the structural context of tissues and cells. This field enables simultaneous capture of cellular gene expression at the transcriptomic level while preserving spatial localization inf...
Xiang-Hui Li, Ze-Wei Yang, Jing-Jing Li et al.· The FASEB Journal· 0 citations
EISCA and EISTA, two standardized, end-to-end pipelines for single-cell RNA-seq and imaging-based spatial transcriptomics analysis, built on the Nextflow nf-core framework provide efficient, flexible, and scalable solutions for comprehensive single-cell and spatial transcriptomics analyses.
Hui-Hai Wu, Ashleigh Lister, Iain C. Macaulay et al.· bioRxiv· 0 citations
Interactive exploration and sharing of hybridization-based spatial transcriptomics datasets remain limited by large file sizes, specialized software, and computationally intensive preprocessing, restricting rapid access to publicly available resources such as the Brain Image Library. Here we present MERFISHEYES (https:...
Ignatius Jenie, Evan Mishkin, Elvis Smith et al.· bioRxiv· 0 citations
This chapter covers quality control, normalization, sparse data handling, and transcript quantification for both bulk and snRNA-seq, along with strategies to address challenges such as multi-mapped reads and batch effects, and examines how artificial intelligence and machine learning techniques can improve data process...
S. P. Dharshini, Y.-H. Taguchi, M. Gromiha· Methods in molecular biology· 0 citations
Technologies for estimating RNA expression at high throughput, in intact tissue slices and with high spatial resolution (spatial transcriptomics) shed new light on how cells communicate and tissues function. A fundamental step in analyzing data generated by subcellular resolution spatial transcriptomics technologies is...
Can Ergen, Nir Yosef· Nature Methods· 0 citations
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