Complex regulatory dynamics is ubiquitous in molecular networks composed of genes and
proteins. Recent progress in computational biology and its application to molecular data …

Biological elements usually exert their functions through interactions with others to form
various types of biological networks. The ability of controlling the dynamics of biological …

Complicated biochemical signaling pathways regulate the function of living cells. Such
regulatory networks often have “downstream” components that provide input to components …

Advancements in high-throughput technologies to measure increasingly complex biological
phenomena at the genomic level are rapidly changing the face of biological research from …

The discovery of DNA and its essential role in cellular function has revolutionized the
science of biology. Rapid progress in biology has led to new and exciting discoveries that …

Estimating the influence that individual nodes have on one another in a Boolean network is
essential to predict and control the system's dynamical behaviour, for example, detecting key …

Cybernetic modeling strives to uncover the in-built regulatory programs of biological systems
and leverage them to develop concise mathematical representations of cellular phenomena …

Synthetic biology is a rapidly expanding field at the interface of the engineering and
biological sciences which aims to apply rational design principles in biological contexts …

The ability to map causal interactions underlying genetic control and cellular signaling has
led to increasingly accurate models of the complex biochemical networks that regulate …

Metabolic control analysis is a powerful quantitative framework for understanding the
relationship between the steady-state properties of a (bio) chemical reaction network as a …