analysis, mathematic modelling and computational simulations. The project
report will be finished independently. In addition, they will also independently
write a review paper to establish the possible connections between their
research interests/directions with systems biology.
本课程将计算机和工程背景强的和生物背景强的同学组成小组,通过以基本概念和案例教学
相结合的形式,教授系统生物学的整体概念和基本思路。并通过学生以小组的形式讲诉前沿
论文,做系统生物学数据处理和建模的小课题,并在期末撰写评论文章的形式,建立对系统
生物学的直接认识,并鼓励他们思考、探讨自己的研究方向与系统生物学相结合的可能性。
After finishing this course, the students are expected to:
(1) Establish the systematic thinking of biological problems
(2) Establish the understanding of scientific background, biological
questions, and systems biology theoretical and experimental methods
through student of classic systems biology studies.
(3) Obtain preliminary capability to perform systems biology mathematic
simulation
(4) Establish their interests in biology and related disciplines, improve their
capability to communicate with scientists from other disciplines.
本课程完成后,学生将能够:
(1)培养对生物问题的系统化认知的视角
(2)培养对系统生物学一些经典课题的科学背景,生物问题和系统生物学的理论和实验方
法的了解。
(3)掌握一定的系统生物学数学模拟的能力。
(4)培养对生命科学及其交叉学科的兴趣,提高未来与其它学科的人士交流合作的能力。
:
Introduction,Michaelis-Menten kinetics
第一部分:单一反应
简介、米氏动力学
MATLAB tutorial, equilibrium binding, cooperativity and ultrasensitivity
MATLAB 介绍、平衡结合、协同性和超敏现象
Course Project #1:two out of three problems: simulation of Michaelis-
Menten kinetics without MATLAB ODE solver; analysis of origins of
degradation and dilution in gene expression; analysis the process and
quantification of RNAi
课程课题#1,3 选 2:数值模拟米氏反应动力学,分析基因表达中的降解和
稀释的来源;分析 RNAi 的过程与量化
Part 2: Simple network, complex function
Positive feedback and multistability, stability analysis, computer simulation
session,
正反馈和多稳态,稳定性分析、计算机模拟
Synthetic switches, more complex network with bistability
合成生物学开关,更加复杂的双稳态网络