Chuang Ryan, Hall Benjamin A, Benque David, Cook Byron, Ishtiaq Samin, Piterman Nir, Taylor Alex, Vardi Moshe, Koschmieder Steffen, Gottgens Berthold, Fisher Jasmin
Department of Applied Mathematics and Theoretical Physics, University of Cambridge, Cambridge CB3 0WA, UK.
1] Microsoft Research, Cambridge CB1 2FB, UK [2] MRC Cancer Unit, University of Cambridge, Cambridge, CB2 0XZ, UK.
Sci Rep. 2015 Feb 3;5:8190. doi: 10.1038/srep08190.
Chronic Myeloid Leukemia (CML) represents a paradigm for the wider cancer field. Despite the fact that tyrosine kinase inhibitors have established targeted molecular therapy in CML, patients often face the risk of developing drug resistance, caused by mutations and/or activation of alternative cellular pathways. To optimize drug development, one needs to systematically test all possible combinations of drug targets within the genetic network that regulates the disease. The BioModelAnalyzer (BMA) is a user-friendly computational tool that allows us to do exactly that. We used BMA to build a CML network-model composed of 54 nodes linked by 104 interactions that encapsulates experimental data collected from 160 publications. While previous studies were limited by their focus on a single pathway or cellular process, our executable model allowed us to probe dynamic interactions between multiple pathways and cellular outcomes, suggest new combinatorial therapeutic targets, and highlight previously unexplored sensitivities to Interleukin-3.
慢性髓性白血病(CML)是更广泛癌症领域的一个范例。尽管酪氨酸激酶抑制剂已在CML中确立了靶向分子疗法,但患者常常面临因突变和/或替代细胞途径激活而产生耐药性的风险。为了优化药物开发,需要系统地测试调节该疾病的遗传网络内所有可能的药物靶点组合。生物模型分析仪(BMA)是一种用户友好的计算工具,它使我们能够做到这一点。我们使用BMA构建了一个CML网络模型,该模型由54个节点组成,通过104个相互作用相连,囊括了从160篇出版物中收集的实验数据。虽然先前的研究局限于关注单一途径或细胞过程,但我们的可执行模型使我们能够探究多个途径与细胞结果之间的动态相互作用,提出新的联合治疗靶点,并突出显示先前未探索的对白细胞介素-3的敏感性。