Mathematical Foundations
Core mathematics required for biological modelling.
Explore →Core mathematics required for biological modelling.
Explore →How biological questions are translated into mathematical models.
Explore →Mathematical models of population growth, structure and extinction.
Explore →Competition, predation, mutualism and interacting populations.
Explore →Equilibria, stability, phase-plane analysis and biological dynamics.
Explore →Mathematical models of infectious disease transmission and control.
Explore →Random processes, Markov models and stochastic biological events.
Explore →Continuous stochastic models, Brownian motion and moment methods.
Explore →Diffusion, spatial populations, travelling waves and pattern formation.
Explore →Mathematical models of biochemical, genetic and cellular processes.
Explore →Models of drugs, tumours, immunity and physiological systems.
Explore →Selection, genetic drift, population genetics and evolutionary dynamics.
Explore →Graph-based models of contact, genetic and ecological networks.
Explore →Connecting mathematical models with biological observations and data.
Explore →Statistical methods for analysing biological data and uncertainty.
Explore →Numerical modelling, simulation and scientific computing with Python.
Explore →Data-driven learning combined with mechanistic biological models.
Explore →Forecasting, risk, intervention and decisions under uncertainty.
Explore →Complete worked examples connecting theory, computation and biology.
Explore →Notation, terminology, formulas and computational references.
Explore →MathsBio is a progressive guide to mathematical biology. The learning structure moves from mathematical foundations to biological models, computation and applications.