In many current developmental models, artificial Gene Regulatory Networks (GRN) simulate cell behavior. More specifically, GRN can determine and regulate cell behaviors using collected external signals through protein sensors. In this paper, we propose to use the GRN properties to control an agent using external perception. More precisely, we will try to evaluate how a GRN can handle and manage simultaneously four conflicting and cooperative continuous actions to solve a new experiment, the Radbot
AbstractStudying the gene regulatory networks (GRNs) that govern how cells change into specific cell...
This paper explores temporal and spatial dynamics of a popu-lation of Genetic Regulatory Networks (G...
Differential gene expression plays a critical role in the development and physiology of multicellula...
International audienceThis chapter shows how an artificial gene regulatory network (GRN) can be used...
NetworksInternational audienceGene regulatory networks are a central mechanism in the regulation of ...
Gene regulatory networks (GRNs) govern the protein transcription process in the cell and interaction...
In nature, gene regulatory networks are a key mediator between the information stored in the DNA of ...
In this chapter, we describe the use of evolutionary methods for the in silico generation of artific...
Objective: Interactions between genes are realized as gene regulatory networks (GRNs). The control o...
Genetic Regulatory Networks (GRNs) in biological organisms are primary engines for cells to enact th...
International audienceIn nature, gene regulatory networks are a key mediator between the information...
<p>The GRN-based controller actually consists of two separate layers. First, an artificial genome (A...
In any given cell, thousands of genes are expressed and work in concert to ensure the cell\u27s func...
International audienceThis paper explores temporal and spatial dynamics of a population of Genetic R...
International audienceExisting regulatory network models attempt to copy the ``in vivo" regulatory p...
AbstractStudying the gene regulatory networks (GRNs) that govern how cells change into specific cell...
This paper explores temporal and spatial dynamics of a popu-lation of Genetic Regulatory Networks (G...
Differential gene expression plays a critical role in the development and physiology of multicellula...
International audienceThis chapter shows how an artificial gene regulatory network (GRN) can be used...
NetworksInternational audienceGene regulatory networks are a central mechanism in the regulation of ...
Gene regulatory networks (GRNs) govern the protein transcription process in the cell and interaction...
In nature, gene regulatory networks are a key mediator between the information stored in the DNA of ...
In this chapter, we describe the use of evolutionary methods for the in silico generation of artific...
Objective: Interactions between genes are realized as gene regulatory networks (GRNs). The control o...
Genetic Regulatory Networks (GRNs) in biological organisms are primary engines for cells to enact th...
International audienceIn nature, gene regulatory networks are a key mediator between the information...
<p>The GRN-based controller actually consists of two separate layers. First, an artificial genome (A...
In any given cell, thousands of genes are expressed and work in concert to ensure the cell\u27s func...
International audienceThis paper explores temporal and spatial dynamics of a population of Genetic R...
International audienceExisting regulatory network models attempt to copy the ``in vivo" regulatory p...
AbstractStudying the gene regulatory networks (GRNs) that govern how cells change into specific cell...
This paper explores temporal and spatial dynamics of a popu-lation of Genetic Regulatory Networks (G...
Differential gene expression plays a critical role in the development and physiology of multicellula...