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UPSI Digital Repository (UDRep)
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| Total records found : 2 |
| Simplified search suggestions : Kristiani Farah |
| 1 | 2017 Article | The SIR-SI Model with age-structured human population for dengue disease mapping in Bandung, Indonesia. Kristiani, Farah Dengue is one of the most dangerous vector-borne infectious diseases in the world which are fatal in many cases due to inefficient treatment. Although the relative risk estimations of dengue transmission are available for Bandung, one of the most populous cities in Indonesia, dengue cases especially among young people have increased rapidly. However, the age factor has not yet been included in these estimations. Because specific treatment and prevention depend on age, this factor must be considered in any dengue transmission model. In this article, the authors classify dengue cases in Bandung into juveniles and adults. Each group is analyzed by SIR-SI model to estimate the relative risk of dengue transmission as an indirect transmission disease which takes into account the stochastic factor. This model also considers a spatial correlation which affects dengue distribution in a specific area for a particular age group. The results of the analysis show that some areas in Bandung have med..... 749 hits |
| 2 | 2019 Thesis | Mathematical models based on difference and differential equations for dengue disease mapping in Bandung Indonesia Farah Kristiani This study aimed to introduce a new alternative mathematical model for the discrete space-time
compartment models. The study focuses on the development of three new models. The first model is a
stochastic model which considers the age-structure based on the difference equation, also known as
the ASDE model to estimate the relative risk of dengue disease transmission. This model takes into
account the spatial correlation in determining the newly infective number of dengue cases
which can be applied to juveniles and adults by using different birth and death probabilities.
The second model is the OBDE model which is based on the development of O blood-type differential
equation. Lastly, the third model is the WADE model, which is also known as
Wolbachia-Aedes mosquito differential equation. The basic reproduction numbers (R0) of OBDE and
WADE models as the threshold of dengue disease transmi..... 1161 hits |