Quasispecies evolution in general mean-field landscapes
arXiv:cond-mat/0105379 · doi:10.1209/epl/i2002-00526-5
Abstract
I consider a class of fitness landscapes, in which the fitness is a function of a finite number of phenotypic "traits", which are themselves linear functions of the genotype. I show that the stationary trait distribution in such a landscape can be explicitly evaluated in a suitably defined "thermodynamic limit", which is a combination of infinite-genome and strong selection limits. These considerations can be applied in particular to identify relevant features of the evolution of promoter binding sites, in spite of the shortness of the corresponding sequences.
6 pages, 2 figures, Europhysics Letters style (included) Finite-size scaling analysis sketched. To appear in Europhysics Letters
References in corpus (1)
Cited by in corpus (16)
- Phase Diagrams of Quasispecies Theory with Recombination and Horizontal Gene Transfer
- Quasispecies Theory for Multiple-Peak Fitness Landscapes
- The Tangled Nature model as an evolving quasi-species model
- Evolution Equation of Phenotype Distribution: General Formulation and Application to Error Catastrophe
- Schwinger Boson Formulation and Solution of the Crow-Kimura and Eigen Models of Quasispecies Theory
- Robustness and epistasis in mutation-selection models
- Recombination and mutational robustness in neutral fitness landscapes
- Lines of descent under selection
- Islands of stability in motif distributions of random networks
- Error thresholds for self- and cross-specific enzymatic replication
- A unified framework for quasi-species evolution and stochastic quantization
- A framework for analyzing ecological trait-based models in multi-dimensional niche spaces
- Evolutionary games and quasispecies
- How the Quasispecies Evolution Depends on the Topology of the Genome Space
- Ultrametric identities in glassy models of Natural Evolution
- Distinct Critical Behaviors from the Same State in Quantum Spin and Population Dynamics Perspectives