Stochastic Gene Expression Modeling with Hill Function for Switch-Like Gene Responses

被引:25
|
作者
Kim, Haseong [1 ]
Gelenbe, Erol [1 ]
机构
[1] Univ London Imperial Coll Sci Technol & Med, Dept Elect & Elect Engn, London SW7 2BT, England
关键词
Stochastic gene expression modeling; gene regulatory networks; switch-like gene responses; Gillespie algorithm; STREPTOMYCES-COELICOLOR; PROBABILISTIC MODELS; COMPUTER-SYSTEMS; MULTIPLE CLASSES; NETWORKS; OSCILLATIONS; NOISE; BUTYROLACTONE; SIMULATION; LANDSCAPE;
D O I
10.1109/TCBB.2011.153
中图分类号
Q5 [生物化学];
学科分类号
071010 ; 081704 ;
摘要
Gene expression models play a key role to understand the mechanisms of gene regulation whose aspects are grade and switch-like responses. Though many stochastic approaches attempt to explain the gene expression mechanisms, the Gillespie algorithm which is commonly used to simulate the stochastic models requires additional gene cascade to explain the switch-like behaviors of gene responses. In this study, we propose a stochastic gene expression model describing the switch-like behaviors of a gene by employing Hill functions to the conventional Gillespie algorithm. We assume eight processes of gene expression and their biologically appropriate reaction rates are estimated based on published literatures. We observed that the state of the system of the toggled switch model is rarely changed since the Hill function prevents the activation of involved proteins when their concentrations stay below a criterion. In ScbA-ScbR system, which can control the antibiotic metabolite production of microorganisms, our modified Gillespie algorithm successfully describes the switch-like behaviors of gene responses and oscillatory expressions which are consistent with the published experimental study.
引用
收藏
页码:973 / 979
页数:7
相关论文
共 50 条
  • [41] Erythroid Kruppel-like factor is essential for β-globin gene expression even in absence of gene competition, but is not sufficient to induce the switch from γ-globin to β-globin gene expression
    Guy, LG
    Mei, Q
    Perkins, AC
    Orkin, SH
    Wall, L
    BLOOD, 1998, 91 (07) : 2259 - 2263
  • [42] Stochastic Dynamics of Gene Switching and Energy Dissipation for Gene Expression
    Liu, Quan
    Yu, FengZhen
    Yi, Liang
    Gao, Yijun
    Gui, Rong
    Yi, Ming
    Sun, Jianqiang
    FRONTIERS IN GENETICS, 2020, 11
  • [43] Stochastic Gene Expression Model Base Gene Regulatory Networks
    Kim, Haseong
    Gelenbe, Erol
    EKC 2009 PROCEEDINGS OF EU-KOREA CONFERENCE ON SCIENCE AND TECHNOLOGY, 2010, 135 : 235 - 244
  • [44] Modeling stochastic gene expression: From Markov to non-Markov models
    Zhang, Zhenquan
    Liang, Junhao
    Wang, Zihao
    Zhang, Jiajun
    Zhou, Tianshou
    MATHEMATICAL BIOSCIENCES AND ENGINEERING, 2020, 17 (05) : 5304 - 5325
  • [45] Stochastic dynamic modeling of short gene expression time-series data
    Wang, Zidong
    Yang, Fuwen
    Ho, Daniel W. C.
    Swift, Stephen
    Tucker, Allan
    Liu, Xiaohui
    IEEE TRANSACTIONS ON NANOBIOSCIENCE, 2008, 7 (01) : 44 - 55
  • [46] Stochastic gene expression in fluctuating environments
    Thattai, M
    van Oudenaarden, A
    GENETICS, 2004, 167 (01) : 523 - 530
  • [47] Stochastic gene expression in Arabidopsis thaliana
    Araujo, Ilka Schultheiss
    Pietsch, Jessica Magdalena
    Keizer, Emma Mathilde
    Greese, Bettina
    Balkunde, Rachappa
    Fleck, Christian
    Huelskamp, Martin
    NATURE COMMUNICATIONS, 2017, 8
  • [48] Stochastic algorithms for gene expression analysis
    Ohno-Machado, L
    Kuo, WP
    STOCHASTIC ALGORITHMS: FOUNDATIONS AND APPLICATIONS, 2003, 2827 : 39 - 49
  • [49] Stochastic gene expression in a single cell
    Elowitz, MB
    Levine, AJ
    Siggia, ED
    Swain, PS
    SCIENCE, 2002, 297 (5584) : 1183 - 1186
  • [50] Quantifying heterogeneity of stochastic gene expression
    Iida, Keita
    Obata, Nobuaki
    Kimura, Yoshitaka
    JOURNAL OF THEORETICAL BIOLOGY, 2019, 465 : 56 - 62