Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.

In this study, we discuss a SLIRV model developed by Jonnalagadda & Gaddam (2016) for the transmission of influenza A with vaccination using tools from ordinary differential equations. We show that if the product of the recruitment rate and the ratio of infection rate to mean latent period is le...

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Main Author: Musiime, Catherine
Format: Thesis
Language:en_US
Published: Kabale University 2024
Subjects:
Online Access:http://hdl.handle.net/20.500.12493/1665
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author Musiime, Catherine
author_facet Musiime, Catherine
author_sort Musiime, Catherine
collection KAB-DR
description In this study, we discuss a SLIRV model developed by Jonnalagadda & Gaddam (2016) for the transmission of influenza A with vaccination using tools from ordinary differential equations. We show that if the product of the recruitment rate and the ratio of infection rate to mean latent period is less than the product the sums µ + m, µ + m and + a + y; where µ, a, y, m and 1/ware natural death rate, disease-related death rate, recovery rate, vaccination rate and mean latent period, respectively; then the disease-free equilibrium will be locally and globally asymptotically stable, an indication that that disease can be eradicated from the population.
format Thesis
id oai:idr.kab.ac.ug:20.500.12493-1665
institution KAB-DR
language en_US
publishDate 2024
publisher Kabale University
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spelling oai:idr.kab.ac.ug:20.500.12493-16652024-06-12T12:49:53Z Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination. Musiime, Catherine Epidemic Analysis Mathematical Modelling Influenza Vaccination In this study, we discuss a SLIRV model developed by Jonnalagadda & Gaddam (2016) for the transmission of influenza A with vaccination using tools from ordinary differential equations. We show that if the product of the recruitment rate and the ratio of infection rate to mean latent period is less than the product the sums µ + m, µ + m and + a + y; where µ, a, y, m and 1/ware natural death rate, disease-related death rate, recovery rate, vaccination rate and mean latent period, respectively; then the disease-free equilibrium will be locally and globally asymptotically stable, an indication that that disease can be eradicated from the population. 2024-01-15T11:57:26Z 2024-01-15T11:57:26Z 2021 Thesis Musiime, Catherine (2021). Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination. Kabale: Kabale University. http://hdl.handle.net/20.500.12493/1665 en_US application/pdf Kabale University
spellingShingle Epidemic Analysis
Mathematical Modelling
Influenza
Vaccination
Musiime, Catherine
Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title_full Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title_fullStr Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title_full_unstemmed Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title_short Epidemic Analysis and Mathematical Modelling of Influenza with Vaccination.
title_sort epidemic analysis and mathematical modelling of influenza with vaccination
topic Epidemic Analysis
Mathematical Modelling
Influenza
Vaccination
url http://hdl.handle.net/20.500.12493/1665
work_keys_str_mv AT musiimecatherine epidemicanalysisandmathematicalmodellingofinfluenzawithvaccination