Al Abir Fuad, Chen Jake Y
Department of Computer Science, University of Alabama at Birmingham, Birmingham, AL 35233, USA.
Systems Pharmacology AI Research Center (SPARC), School of Medicine, University of Alabama at Birmingham, Birmingham, AL 35233, USA.
bioRxiv. 2024 Aug 19:2024.04.11.589093. doi: 10.1101/2024.04.11.589093.
In this study, we introduce the Mondrian Map, an innovative visualization tool inspired by Piet Mondrian's abstract art, to address the complexities inherent in visualizing biological networks. By converting intricate biological data into a structured and intuitive format, the Mondrian Map enables clear and meaningful representations of biological pathways, facilitating a deeper understanding of molecular dynamics. Each pathway is represented by a square whose size corresponds to fold change, with color indicating the direction of regulation (up or down) and statistical significance. The spatial arrangement of pathways is derived from language model embeddings, preserving neighborhood relationships and enabling the identification of clusters of related pathways. Additionally, colored lines highlight potential crosstalk between pathways, with distinctions between short- and long-range functional interactions. In a case study of glioblastoma multiforme (GBM), the Mondrian Map effectively revealed distinct pathway patterns across patient profiles at different stages of disease progression. These insights demonstrate the tool's potential to enhance downstream bioinformatics analysis by providing a more comprehensive and visually accessible overview of pathway interactions, offering new avenues for therapeutic exploration and personalized medicine.
在本研究中,我们引入了蒙德里安地图(Mondrian Map),这是一种受皮特·蒙德里安(Piet Mondrian)抽象艺术启发的创新可视化工具,用于解决生物网络可视化中固有的复杂性。通过将复杂的生物数据转换为结构化且直观的格式,蒙德里安地图能够清晰且有意义地呈现生物途径,有助于更深入地理解分子动力学。每条途径由一个正方形表示,其大小对应于倍数变化,颜色表示调控方向(上调或下调)以及统计显著性。途径的空间排列源自语言模型嵌入,保留了邻域关系并能够识别相关途径的簇。此外,彩色线条突出了途径之间的潜在串扰,区分了短程和长程功能相互作用。在多形性胶质母细胞瘤(GBM)的案例研究中,蒙德里安地图有效地揭示了疾病进展不同阶段患者概况中不同的途径模式。这些见解表明,该工具通过提供更全面且视觉上易于理解的途径相互作用概述,有潜力增强下游生物信息学分析,为治疗探索和个性化医学提供了新途径。