In many species daily rhythms are endogenously generated by groups of coupled neurons that play the role of a circadian pacemaker. The adaptation of the circadian clock to environmental and seasonal changes has been proposed to be regulated by a dual oscillator system. In order to gain insight into this model, we analyzed the synchronization properties of two fully coupled groups of Kuramoto oscillators. Each group has an internal coupling parameter and the interaction between the two groups can be controlled by two parameters allowing for symmetric or non-symmetric coupling. We show that even for such a simple model counterintuitive behaviours take place, such as a global decrease in synchrony when the coupling between the groups is increa...
The general purpose of this paper is to build up on our understanding of the basic mathematical prin...
SummarySystems of coupled oscillators abound in nature. How they establish stable phase relationship...
Synchronization is a ubiquitous phenomenon in nature and engineering. In this project, we explore th...
In mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprachiasmatic...
AbstractIn mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprach...
ABSTRACT In mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprac...
Abstract. Autonomous circadian clocks drive daily rhythms in physiology and behaviour. A network of ...
The suprachiasmatic nuclei (SCN) host a robust, self-sustained circadian pacemaker that coordinates ...
International audienceIn mammals, the circadian pacemaker, which controls daily rhythms, is located ...
Nonlinear interactions among coupled cellular oscillators are likely to underlie a variety of comple...
A few decades ago, Y. Kuramoto introduced a mathematical model of weakly coupled oscillators that ga...
Circadian rhythms in mammals are controlled by the neurons located in the suprachiasmatic nucleus of...
In mammals, the suprachiasmatic nuclei (SCN) of the hypothalamus act as a dominant circadian pacemak...
In this paper we analyze the dynamics of two different models of oscillators. The most relevant aspe...
We investigate synchronization in a Kuramoto-like model with nearest neighbor coupling. Upon analyzi...
The general purpose of this paper is to build up on our understanding of the basic mathematical prin...
SummarySystems of coupled oscillators abound in nature. How they establish stable phase relationship...
Synchronization is a ubiquitous phenomenon in nature and engineering. In this project, we explore th...
In mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprachiasmatic...
AbstractIn mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprach...
ABSTRACT In mammals, the circadian pacemaker, which controls daily rhythms, is located in the suprac...
Abstract. Autonomous circadian clocks drive daily rhythms in physiology and behaviour. A network of ...
The suprachiasmatic nuclei (SCN) host a robust, self-sustained circadian pacemaker that coordinates ...
International audienceIn mammals, the circadian pacemaker, which controls daily rhythms, is located ...
Nonlinear interactions among coupled cellular oscillators are likely to underlie a variety of comple...
A few decades ago, Y. Kuramoto introduced a mathematical model of weakly coupled oscillators that ga...
Circadian rhythms in mammals are controlled by the neurons located in the suprachiasmatic nucleus of...
In mammals, the suprachiasmatic nuclei (SCN) of the hypothalamus act as a dominant circadian pacemak...
In this paper we analyze the dynamics of two different models of oscillators. The most relevant aspe...
We investigate synchronization in a Kuramoto-like model with nearest neighbor coupling. Upon analyzi...
The general purpose of this paper is to build up on our understanding of the basic mathematical prin...
SummarySystems of coupled oscillators abound in nature. How they establish stable phase relationship...
Synchronization is a ubiquitous phenomenon in nature and engineering. In this project, we explore th...