A proof is presented that gene regulatory networks (GRNs) based solely on transcription factors can-not control the development of complex multicellular life. GRNs alone cannot explain the evolution of multicellular life in the Cambrian Explosion. Networks are based on addressing systems which are used to construct network links. The more complex the network the greater the number of links and the larger the required address space. It has been assumed that combinations of transcription factors generate a large enough address space to form GRNs that are complex enough to control the development of complex multicellular life. However, it is shown in this article that transcription factors do not have sufficient combinatorial power to serve as...
dynamics of these networks across organisms, which would reveal Of the several steps at which the fl...
Developmental processes in complex animals are direc-ted by a hardwired genomic regulatory code, the...
The interactions of biological macromolecules and the flow of regulatory information that controls d...
Gene regulatory networks account for the ability of the genome to program development in complex mul...
Gene regulatory networks account for the ability of the genome to program development in complex mul...
The mystery of how diverse life forms evolved has captivated scientists for over 150 years. It has b...
An important contribution of systems biology is the insight that biological systems depend on the fu...
Eukaryotic phenotypic diversity arises from multitasking of a core proteome of limited size. Multita...
An important contribution of systems biology is the insight that biological systems depend on the fu...
An important contribution of systems biology is the insight that biological systems depend on the fu...
Gene regulatory networks (GRNs) play key roles in development, phenotype plasticity, and evolution. ...
Cascades of transcriptional regulation are the common source of the forward drive in all development...
Cascades of transcriptional regulation are the common source of the forward drive in all development...
Transcriptional regulatory networks take part in the regulation of essentially every aspect of an or...
Transcriptional regulatory networks take part in the regulation of essentially every aspect of an or...
dynamics of these networks across organisms, which would reveal Of the several steps at which the fl...
Developmental processes in complex animals are direc-ted by a hardwired genomic regulatory code, the...
The interactions of biological macromolecules and the flow of regulatory information that controls d...
Gene regulatory networks account for the ability of the genome to program development in complex mul...
Gene regulatory networks account for the ability of the genome to program development in complex mul...
The mystery of how diverse life forms evolved has captivated scientists for over 150 years. It has b...
An important contribution of systems biology is the insight that biological systems depend on the fu...
Eukaryotic phenotypic diversity arises from multitasking of a core proteome of limited size. Multita...
An important contribution of systems biology is the insight that biological systems depend on the fu...
An important contribution of systems biology is the insight that biological systems depend on the fu...
Gene regulatory networks (GRNs) play key roles in development, phenotype plasticity, and evolution. ...
Cascades of transcriptional regulation are the common source of the forward drive in all development...
Cascades of transcriptional regulation are the common source of the forward drive in all development...
Transcriptional regulatory networks take part in the regulation of essentially every aspect of an or...
Transcriptional regulatory networks take part in the regulation of essentially every aspect of an or...
dynamics of these networks across organisms, which would reveal Of the several steps at which the fl...
Developmental processes in complex animals are direc-ted by a hardwired genomic regulatory code, the...
The interactions of biological macromolecules and the flow of regulatory information that controls d...