Over the last decade, complex networks have emerged to be a promising research field in
the area of circuits and systems. This mini-review paper introduces the special session that …

Oscillatory regulatory networks have been discovered in many regulatory pathways. Due to
their enormous complexity, it is necessary to study their dynamics by means of highly …

It is well known that the feed-forward loops (FFLs) are typical network motifs in many real
world biological networks. The structures, functions, as well as noise characteristics of FFLs …

The pattern of gene expression in a developing tissue determines the spatial organization of
cell type generation. We previously defined regulatory interactions between a set of …

The Repressilator is a genetic regulatory network used to model oscillatory behavior of more
complex regulatory networks like the circadian clock. We prove that the Repressilator …

Oscillatory regulatory networks have been discovered in many cellular pathways. An
especially challenging area is studying dynamics of cellular oscillators interacting with one …

We study a neural network model of interacting stochastic discrete two-state cellular
automata on a regular lattice. The system is externally tuned to a critical point which varies …

Understanding the relationship between genotype and phenotype is a challenge in systems
biology. An interesting yet related issue is why a particular circuit topology is present in a cell …

Synchronization and desynchronization is of great interest in the study of circadian rhythms,
metabolic oscillations and time-dependent cell aggregate behaviors. Several recent studies …

Rhythmic activity in complex systems is generated and sustained through interactions
among the constituent units. In this paper we study the interplay between topology and …