
The need for a more formal handling of biological information processing with stochastic and mobile process algebras is addressed. Biology can benefit this approach, yielding a better understanding of behavioural properties of cells, and computer science can benefit this approach, obtaining new computational models inspired by nature.
Systems Biology, Computational Biology, Models, Biological, Cell Physiological Phenomena, Kinetics, Nonlinear Dynamics, Animals, Humans, Algorithms, Software, Models for molecular networks; Systems biology; Process algebras, Models for molecular networks, Systems biology, Process algebras
Systems Biology, Computational Biology, Models, Biological, Cell Physiological Phenomena, Kinetics, Nonlinear Dynamics, Animals, Humans, Algorithms, Software, Models for molecular networks; Systems biology; Process algebras, Models for molecular networks, Systems biology, Process algebras
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