A core modeling language for Molecular Biology is introduced, where two simple forms of interaction are considered, complexation and activation. This core language is equipped with two sensible bisimulation-based equivalences, and it is shown that interactions involving complex reactants are superfluous up to these notions. Strong compilations in #-calculus are given, following Regev's principle of translating physical connection as private name sharing
AbstractVarious calculi have been proposed to model different levels of abstraction of cell signalin...
We introduce the Bioβ Framework, a meta-model for both protein-level and membrane-level interac-tion...
In recent years, there has been increasing interest in computational models of biological systems ba...
AbstractA language of formal proteins, the κ-calculus, is introduced. Interactions are modeled at th...
AbstractWe introduce and study abstract structures which are suitable for expressing molecular inter...
Models will play a central role in the representation, storage, ma-nipulation, and communication of ...
Interaction is characteristic of life, whether between an organism and its environment, or between d...
Rule-based languages (like, for example, Kappa, BioNetGen, and BioCham) have emerged as successful m...
AbstractThe use of process calculi to represent biological systems has led to the design of differen...
We have witnessed an explosive growth in research involving mathematical models and computer simula...
Systems biology is a rapidly growing field which seeks a refined quantitative understanding of organ...
We present the MIM calculus, a modeling formalism with a strong biological basis, which provides bio...
Systems biology investigates the interactions and relationships among the components of biological s...
none2We explore the computational power of biochemistry with respect to basic chemistry, identifying...
AbstractThe use of process calculi to represent biological systems has led to the design of differen...
AbstractVarious calculi have been proposed to model different levels of abstraction of cell signalin...
We introduce the Bioβ Framework, a meta-model for both protein-level and membrane-level interac-tion...
In recent years, there has been increasing interest in computational models of biological systems ba...
AbstractA language of formal proteins, the κ-calculus, is introduced. Interactions are modeled at th...
AbstractWe introduce and study abstract structures which are suitable for expressing molecular inter...
Models will play a central role in the representation, storage, ma-nipulation, and communication of ...
Interaction is characteristic of life, whether between an organism and its environment, or between d...
Rule-based languages (like, for example, Kappa, BioNetGen, and BioCham) have emerged as successful m...
AbstractThe use of process calculi to represent biological systems has led to the design of differen...
We have witnessed an explosive growth in research involving mathematical models and computer simula...
Systems biology is a rapidly growing field which seeks a refined quantitative understanding of organ...
We present the MIM calculus, a modeling formalism with a strong biological basis, which provides bio...
Systems biology investigates the interactions and relationships among the components of biological s...
none2We explore the computational power of biochemistry with respect to basic chemistry, identifying...
AbstractThe use of process calculi to represent biological systems has led to the design of differen...
AbstractVarious calculi have been proposed to model different levels of abstraction of cell signalin...
We introduce the Bioβ Framework, a meta-model for both protein-level and membrane-level interac-tion...
In recent years, there has been increasing interest in computational models of biological systems ba...