我们通过将多组学数据与机器学习方法相结合,构建数字孪生生命模型,用于快速筛选细胞命运调控过程中的重要调控因子,推断候选靶标的分子机制,支持药物靶标的虚拟设计。 We combine multi-omics data with machine learning to build digital twin life models, enabling rapid identification of key regulatory factors in cell fate regulation, inference of molecular mechanisms for candidate targets, and supporting virtual drug target design.
在顶级期刊发表论文 (Nature、Nature Genetics、Cell Reports) Published in top-tier journals (Nature, Nature Genetics, and Cell Reports)
研究团队建立了Geo-seq、Auto-seq等单细胞空间组学技术平台 Research team developed Geo-seq, Auto-seq and other single-cell spatial omics platforms
利用单细胞和空间多组学技术研究细胞命运调控,发表 55 篇论文他引 1,705 次 Pioneering single-cell and spatial multi-omics for cell fate regulation, 55 publications with 1,705 citations
胚胎发育 4D 时空模型, 推断时间-空间-细胞命运的耦合调控 4D spatiotemporal embryonic development model, inferring coupled time-space-cell fate regulation
Guizhong Cui#, Su Feng#, Yaping Yan#, Li Wang, Xiechao He, Xi Li, Yanchao Duan, Jun Chen, Patrick P.L. Tam, Ke Tang, Ping Zheng, Wei Si+, Naihe Jing+, Guangdun Peng+. Spatial molecular anatomy of germ layers in the gastrulating Cynomolgus monkey embryo. Cell Reports, 2022, 40(9): 111285-111285.
Guangdun Peng#+, Shengbao Suo#, Guizhong Cui#, Fang Yu#, Ran Wang, Jun Chen, Shirui Chen, Zhiwen Liu, Guoyu Chen, Yun Qian, Patrick P. L. Tam, Jing-Dong J. Han+, Naihe Jing+. Molecular architecture of lineage allocation and tissue organization in early mouse embry. Nature, 2019, 572(7770): 528-32.
Qiaozhen Liu#, Kuo Liu#, Guizhong Cui#, Xiuzhen Huang, Shun Yao, Wenke Guo, Zhen Qin, Yan Li, Rui Yang, Wenjuan Pu, Libo Zhang, Lingjuan He, Huan Zhao, Wei Yu, Muxue Tang, Xueying Tian, Dongqing Cai, Yu Nie, Shengshou Hu, Tao Ren, Zengyong Qiao, Hefeng Huang, Yi Arial Zeng, Naihe Jing, Guangdun Peng+, Hongbin Ji+, Bin Zhou+. Lung regeneration by multipotent stem cells residing at the bronchioalveolar-duct junction. Nature Genetics, 2019, 51(4): 728-38.
Jiaxin Yang, Wenjing Sun, Guizhong Cui+. Roles of the NR2F Family in the Development, Disease, and Cancer of the Lung. Journal of Developmental Biology, 2024, 12(3): 24.
1. Xiaogao Meng#, Wenjia Li#, Jian Xu, Yao Yao, An Gong, Yumeng Yang , Fangfang Qu, Chenkai Guo, Hui Zheng, Guizhong Cui+, Shengbao Suo+, Guangdun Peng+. Spatio-temporal transcriptome atlas of developing mouse lung. Science Bulletin, 2025, 70(10): 1641-58.
2. Jiaxin Yang, Wenjing Sun, Guizhong Cui+. Roles of the NR2F Family in the Development, Disease, and Cancer of the Lung. Journal of Developmental Biology, 2024, 12(3): 24.
3. Fangfang Qu#, Wenjia Li#, Jian Xu#, Ruifang Zhang, Jincan Ke, Xiaodie Ren, Xiaogao Meng, Lexin Qin, Jingna Zhang, Fangru Lu, Xin Zhou, Xi Luo, Zhen Zhang, Minhan Wang, Guangming Wu, Duanqing Pei, Jiekai Chen, Guizhong Cui+, Shengbao Suo+, Guangdun Peng+. Three-dimensional molecular architecture of mouse organogenesis. Nature Communications, 2023, 14(1): 4599.
4. Xiaogao Meng, Guizhong Cui+, Guangdun Peng+. Lung development and regeneration: newly defined cell types and progenitor status. Cell Regeneration, 2023, 12(1): 5.
猕猴胚胎发育空间转录组学数据库 Cynomolgus Monkey Embryogenesis Spatial Transcriptomics
基于Geo-seq技术构建的猕猴胚胎发育高分辨率解剖学图谱,提供3D数字胚胎模板和空间转录组学数据,支持跨物种比较分析。 High-resolution anatomical atlas of Cynomolgus gastrulation embryos based on Geo-seq technology, providing 3D digital embryo templates and spatial transcriptomics data for cross-species comparative analysis.
E17-E21发育阶段3D模型 E17-E21 stage 3D models
胚层特异性基因表达 Germ layer-specific expression
小鼠与灵长类对比 Mouse vs Primate comparison
原始数据和分析结果 Raw data & analysis
基于时间序列深度学习和多组学数据整合,构建胚胎发育与肿瘤发生的数字孪生模型,实现生命过程的动态模拟与预测,为细胞命运调控研究和靶标发现提供计算基础。 Using time-series deep learning and multi-omics data integration, we build digital twin models for embryonic development and tumorigenesis, enabling dynamic simulation and prediction of life processes, providing computational foundations for cell fate regulation research and target discovery.
整合基因组、转录组和表观基因组数据,解析肿瘤发生的关键调控机制,快速筛选重要的调控因子,推断候选靶标的分子机制,为药物靶标虚拟设计提供科学依据。 Integrating genomic, transcriptomic, and epigenomic data to elucidate key regulatory mechanisms of tumorigenesis, rapidly identify important regulatory factors, infer molecular mechanisms of candidate targets, and provide scientific basis for virtual drug target design.
基于图神经网络和注意力机制的数据整合方法,实现基因组、表观基因组、转录组和蛋白质组数据的统一分析,支持跨组学关联分析和生物学解释。 Data integration methods based on graph neural networks and attention mechanisms, enabling unified analysis of genomic, epigenomic, transcriptomic, and proteomic data, supporting cross-omics correlation analysis and biological interpretation.
整合多组学数据和机器学习算法,基于数字孪生模型进行药物靶标的虚拟筛选与设计,支持生物制药企业的靶标发现和药物研发流程。 Integrating multi-omics data and machine learning algorithms, we perform virtual screening and design of drug targets based on digital twin models, supporting target discovery and drug development processes for biopharmaceutical enterprises.
BFT Bio AI 专注于多组学数据整合与机器学习算法在生命科学研究中的应用。我们通过整合基因组、转录组、表观基因组等多维度数据,运用深度学习和可解释机器学习方法,构建数字孪生生命模型,为科研工作者、生物试剂企业和生物制药企业提供解决方案。我们帮助用户快速筛选细胞命运调控过程中的重要调控因子,推断候选靶标的分子机制,并进行药物靶标的虚拟设计。 BFT Bio AI focuses on integrating multi-omics data with machine learning algorithms in life sciences research. By combining genomic, transcriptomic, and epigenomic data, we apply deep learning and interpretable machine learning methods to build digital twin life models, providing solutions for researchers, biotech reagent companies, and biopharmaceutical enterprises. We help users rapidly identify key regulatory factors in cell fate regulation, infer molecular mechanisms of candidate targets, and perform virtual design of drug targets.
深度学习与可解释机器学习方法 Deep learning and interpretable ML methods
跨维度的整合数据分析 Cross-dimensional integrated data analysis
服务于科研与生物制药产业 Serving research and biopharmaceutical industries
联系我们,深入了解我们的技术方案、算法模型以及潜在的合作伙伴关系。让我们共同推进胚胎发育与肿瘤研究领域的科学进展。 Contact us to explore our technical solutions, algorithm models, and partnership opportunities. Let's advance scientific progress in embryonic development and cancer research together.