Ten years of the digital twin brain: Perspectives and challenges

Abstract Over the past decade, the digital twin brain (DTB) has emerged as a transformative brain science paradigm, integrating multimodal data to construct dynamic models closely simulating biological brain function. This approach has advanced understanding of structure-function relationships, cognitive behaviors, and disease mechanisms, while supporting personalized therapies. Recent progress highlights DTB's potential in capturing functional heterogeneity, simulating information integration, and predicting individual cognitive and pathological variations. Looking forward, the development of a high-precision DTB is expected to drive breakthroughs in understanding brain mechanisms and enabling precision medicine. This perspective summarizes DTB modeling strategies, including multimodal data integration and optimization, while addressing challenges such as model granularity, and biological interpretability. Future efforts should focus on refining modeling techniques and integrating with brain cognition and disease. We believe these advancements will pave the way for breakthroughs in brain science and precision medicine, ushering in a new era of neuroscience and personalized healthcare.

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Publication Details

Journal
Europhysics Letters (EPL)
Published
2025-02-01
DOI
https://doi.org/10.1209/0295-5075/adb3c9
Citations
5
Primary Topic
Scientific Computing and Data Management
Type
article
Field-Weighted Citation Impact
20.84

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article

Ten years of the digital twin brain: Perspectives and challenges

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5 citations
Europhysics Letters (EPL)
Scientific Computing and Data Management
20.84
article

Ten years of the digital twin brain: Perspectives and challenges

Daqing Guo, Dezhong Yao, Shuqi Guo, Yi Xu, Ying Xiong, Ge Zhang, Yan Cui, Xin Zeng
article en
5 citations

Abstract

Abstract Over the past decade, the digital twin brain (DTB) has emerged as a transformative brain science paradigm, integrating multimodal data to construct dynamic models closely simulating biological brain function. This approach has advanced understanding of structure-function relationships, cognitive behaviors, and disease mechanisms, while supporting personalized therapies. Recent progress highlights DTB's potential in capturing functional heterogeneity, simulating information integration, and predicting individual cognitive and pathological variations. Looking forward, the development of a high-precision DTB is expected to drive breakthroughs in understanding brain mechanisms and enabling precision medicine. This perspective summarizes DTB modeling strategies, including multimodal data integration and optimization, while addressing challenges such as model granularity, and biological interpretability. Future efforts should focus on refining modeling techniques and integrating with brain cognition and disease. We believe these advancements will pave the way for breakthroughs in brain science and precision medicine, ushering in a new era of neuroscience and personalized healthcare.

Europhysics Letters (EPL)Vol. 149(4)
University of Electronic Science and Technology of China (CN)
National Key Research and Development Program of China
Openalex Percentile: Top 1%
Scientific Computing and Data Management
20.84
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