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Internal vector borne transmission
Internal vector borne transmission








internal vector borne transmission
  1. #Internal vector borne transmission how to#
  2. #Internal vector borne transmission drivers#

#Internal vector borne transmission drivers#

In a previous chapter, we discussed cycles that could be caused by the intrinsic transmission dynamics or influenced by external drivers (e.g., seasonal changes in weather). Understanding what mechanisms lead to potentially observed patterns in incidence and prevalence for vector-borne diseases is difficult, due to the presence of more than one host. 24 Appendix D - A very brief introduction to data fittingĩ.3 Vector-borne Transmission and ID Patterns.23 Appendix C - The different uses of Infectious Disease models.

#Internal vector borne transmission how to#

22 Appendix B - How to build or use the right model.21 Appendix A - A brief description of modeling software.19.11 ID Transmission on Dynamic Networks.19.10 Modeling ID Transmission on Networks.17.4 Ecological drivers of evolution and emergence.14.6 Modeling Stochasticity and Extinction.11.4.4 Special Interventions for Non-human Hosts.11.4.3 Non-pharmaceutical Interventions.11.4.2 Pharmaceutical Interventions (Drugs).11.4 Types of Infectious Disease Control.10.6 Heterogeneity and The Reproductive Number.10.5 Heterogeneity in Transmission: Superspreaders.10.4 Heterogeneity in Transmission: Core Groups.9.4 Vector-borne Transmission and Interventions.9.3 Vector-borne Transmission and ID Patterns.8.6.1 Basic Science Example: Environmental Transmission for Cholera.8.5 Environmental Transmission and Interventions.8.4 Environmental Transmission and External Drivers.7.5.1 Modeling types of direct transmission.7.5 Ways in which direct transmission scales.6 Types of Infectious Disease Transmission.

internal vector borne transmission

  • 5.12.2 Policy/Application example: Estimating the reproductive number of the 2014 Ebola outbreak.
  • 5.12.1 Basic Science example: Estimating the reproductive number for the 1918 influenza pandemic.
  • 5.10.5 Determining R Through Fitting a Full Transmission Model.
  • 5.10.4 Determining R Through Age of Infection.
  • 5.10.3 Determining R at the Endemic/steady state.
  • 5.10.2 Determine R Once the Outbreak is Over.
  • 5.10.1 Determine R at the Beginning of an Outbreak.
  • 5.9 Estimating Intervention Efforts based on R.
  • 5.8 Reproductive Number and Outbreak Control.
  • 4.10 ID Dynamics in Changing Populations.
  • 4.4 A Model with Resource Replenishment.
  • 4 Patterns of Infectious Disease Dynamics.
  • 3.7 Medical versus ID Dynamics Perspectives.
  • 3 Characterizing Infectious Disease States.
  • 2.6 A Basic Infectious Disease Systems Model.
  • 2.5 Systems approaches in ID Epidemiology.
  • 2.4.4 Types of Dynamical, Mechanistic Models.
  • 2.4.1 Phenomenological (statistical) Models.
  • 2 Introduction to the Dynamical Systems Approach.
  • 1.5 Recommended complementary resources.
  • 1.2 What this book does and does not cover.









  • Internal vector borne transmission