Spatial omics in the AI era: Technologies, algorithmic ecosystems, biological applications, and large model perspectives
Haoxiu Wang , Xinwang Yang , Siheng Wang , Zhe Yang , Xiuhui Yang , Yutong Yang , Zirong Li , Yuqi Ren , Qianqian Zhang , Bowen Zhao , Jingming Xiao , Yidong Wang , Junhao Dong , Zhenhao Kou , Jie Li , Liqun Yang , Erhu Zhao , Gregory Fonseca , Ruibang Luo , Mingyu Yang , Hongjuan Cui , Gengjie Jia , Dan Wang , Haoyang Li , Jun Ding , Zhiyuan Yuan , Haojing Shao
iMeta ›› 2026, Vol. 5 ›› Issue (3) : e70146
Spatial omics technologys help overcome key limitations of conventional omics approaches that lack spatial information, by providing a panoramic perspective from the molecular level to the microenvironment scale for addressing spatially resolved biological questions in life sciences. With the rapid advancement of this field, there are significant differences among technology platforms, algorithms, and research workflows, which bring three core challenges to interdisciplinary researchers: the detailed explanation of technical principles, the selection of appropriate algorithms, and the future development directions. This review systematically summarizes the technical platforms and analytical algorithms of spatial omics, compares their advantages and disadvantages in the context of specific tasks and presents application cases across multiple biological fields. It also outlines the emerging research directions and advances in large model integration. It ultimately aims to provide a reference for researchers from diverse disciplines to design and implement spatial omics studies.
algorithms / biological applications / large models / spatial omics / technologies
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2026 he Author(s). iMeta published by John Wiley & Sons Australia, Ltd on behalf of iMeta Science.
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