International Journal for Computational Biology (IJCB)
Vol.4, No.1, April 2015, pp. 13~20
ISSN: 2278-8115 13
Journal homepage: http://www.ijcb.in
Three-Dimensional Cellular Automaton for Modeling the
Hepatitis B Virus Infection
M. Khabouze
1,*
, K. Hattaf
1, 2
, N. Yousfi
1
1
Department of Mathematics and Computer Science, Faculty of Sciences Ben M’Sik,
Hassan II University, P.O. Box 7955, 20700 Casablanca, Morocco.
2
Centre Régional des Metiers de l’Education (CRMEF), Derb Ghalef, 20340 Casablanca, Morocco
Article Info ABSTRACT
Article history:
Received Oct 15
nd
, 2014
Revised Nov 18
th
, 2014
Accepted Dec 25
th
, 2014
Hepatitis B is considered as the most common hepatic in the world
and may lead to cirrhosis and liver cancer. It is caused by the hepatitis
B virus, which attacks and can damage the liver. In this paper we
investigate a new mathematical model to study the dynamic process of
HBV infection on the liver. This model is based on a three
dimensional cellular automaton, which is composed of four state
variables. The model takes into account the heterogeneous feature and
the spatial localization of the population studied. Furthemore, since
the virus doesn’t remain only on the liver surface but penetrates into
the organ, our model describes better the behavior of interactions
between cells and hepatitis B virus in the liver than the previous works
found in the literature, which have used only two cellular automata in
their models.
Keyword:
Modeling
Cellular Automata
Three Dimensional
Hepatits B
Copyright © 2015 International Journal for Computational Biology,
http:// www.ijcb.in, All rights reserved.
Corresponding Author:
M. Khabouze,
Department of Mathematics
Computer Science, Faculty of
sciences Ben M’Sik, University
Hassan II, P.O. Box 7955, 20700
Casablanca, Morocco
Email:khabouzemostafa@gmail.com
How to Cite:
Khabouze Mostafa et al. Three-Dimensional
Cellular Automaton for Modeling the Hepatitis
B Virus Infection. IJCB. 2015; Volume 4 (Issue
1): Page 13-20.
1. INTRODUCTION
Currently, hepatitis B virus (HBV) infection is considered as a major global health problem because it is a
potentially life-threatening viral infection that can cause illness and even death. It can lead to cirrhosis and liver
cancer. From the World Health Organization (WHO), more than 240 million people have chronic (long-term)
liver infections, and about 600.000 people die every year due to the acute or chronic consequences of hepatitis B
[1]. The most infected infants and children develop chronic. The hepatitis B is transmitted through blood,
unprotected sex, sharing or reuse of contaminated needles, and vertically from mother to her newborn during
childbirth.
Therefore, many mathematical models have been developed in order to understand the dynamics of HBV
infection and help the responsible for public health to make the right decisions. The most of these models are
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