| New directions in the mathematics of infectious diseases |
| Fred Brauer |
| Kenneth Cooke |
| Maximal prevalence and the basic reproduction number in simple epidemics |
| The transition through stages with arbitrary length distributions, and applications in epidemics |
| Measles outbreaks are not chaotic |
| Epidemics among a population of households |
| Infection transmission dynamics and vaccination program effectiveness as a function of vaccine effects in individuals |
| The influence of different forms of cross-protective immunity on the population dynamics of antigenetically diverse pathogens |
| Dynamics of multiple strains of infectious agents coupled by cross-immunity |
| Virulence evolution in macro-parasites |
| Mathematical models for schistosomiasis with delays and multiple definitive hosts |
| Infectious disease models with chronological age structure and epidemiological age structure |
| Effects of genetic heterogeneity on HIV transmission in homosexual populations |
| Age-structured core group model and its impact on STD dynamics |
| Global dynamics of tuberculosis models with density dependent demography |
| Global stability in some SEIR epidemic models |
| The global stability analysis for an SIS model with age and infection age structures |
| Endemic threshold and stability in an evolutionary epidemic model |
| Epilogue |
| New directions in the mathematics of infectious disease |
| Kenneth L. Cooke |
| Basic ideas of mathematical epidemiology |
| Extensions of the basic models |
| New vaccination strategies for pertussis |
| Time delay in epidemic models |
| Nonlocal response in a simple epidemiological model |
| Discrete-time S-I-S models with simple and complex population dynamics |
| Intraspecific competition, dispersal, and disease dynamics in discrete-time patchy environments |
| The impact of long-range dispersal on the rate of spread in population and epidemic models |
| Endemicity, persistence, and quasi-stationarity |
| On the computation of Ro and its role in global stability |
| Nonlinear mating models for populations with discrete generations |
| Center manifolds and normal forms in epidemic models |
| Remarks on modeling host-viral dynamics and treatment |
| A multiple compartment model for the evolution of HIV-1 after highly active antiretroviral therapy |
| Modeling cancer as an infectious disease |
| Frequency dependent risk of infection and the spread of infectious diseases |
| Long-term dynamics and emergence of tuberculosis |
| New directions in the mathematics of infectious diseases |
| Fred Brauer |
| Kenneth Cooke |
| Maximal prevalence and the basic reproduction number in simple epidemics |
| The transition through stages with arbitrary length distributions, and applications in epidemics |
| Measles outbreaks are not chaotic |
