In biological sciences, dynamical system of cancer model is well known due to its sensitivity and chaoticity. Present work provides detailed computational study of cancer model by counterbalancing its sensitive dependency on initial conditions and parameter values. Cancer chaotic model is discretized into a system of nonlinear equations that are solved using the well-known Successive-Over-Relaxation (SOR) method with a proven convergence. This technique enables to solve large systems and provides more accurate approximation which is illustrated through tables, time history maps and phase portraits with detailed analysis
Cancers are complex adaptive diseases regulated by the nonlinear feedback systems between genetic in...
In this letter we present a simple and accessible way to enhance the stable behaviors of a chaotic d...
Bu tez çalışmasında, kanser dinamiği ve kanserin biyolojik olarak davranışını analiz etmek üzere baz...
Cancer growth and decay can be modeled as a system of chaotic nonlinear differential equations. The ...
In this paper, we study the chaos and optimal control of cancer model with completely unknown par...
The complexity of cancer has motivated the development of different approaches to understand the dyn...
Model equations: n'=0,f'=αη(m-f), m'=βkn-fc+γf-m, c'=vfm-ωn-δΦc where m,n,f and c are functions of t...
Cancer is a significant medical and societal problem. This reality arises from the fact that an expo...
Despite mounting evidence that oncolytic viruses can be effective in treating cancer, understanding ...
Despite mounting evidence that oncolytic viruses can be effective in treating cancer, understanding ...
Cancer is often characterized as a chaotic, poorly regulated growth. Cancer can be viewed as a compl...
In this article we provide homotopy solutions of a cancer nonlinear model describing the dynamics of...
We consider a dynamical model of cancer growth including three interacting cell populations of tumor...
Cancer is a common term for many diseases that can affect anybody. A worldwide leading cause of deat...
We study complex oscillations generated by the de Pillis-Radunskaya model of cancer growth, a model ...
Cancers are complex adaptive diseases regulated by the nonlinear feedback systems between genetic in...
In this letter we present a simple and accessible way to enhance the stable behaviors of a chaotic d...
Bu tez çalışmasında, kanser dinamiği ve kanserin biyolojik olarak davranışını analiz etmek üzere baz...
Cancer growth and decay can be modeled as a system of chaotic nonlinear differential equations. The ...
In this paper, we study the chaos and optimal control of cancer model with completely unknown par...
The complexity of cancer has motivated the development of different approaches to understand the dyn...
Model equations: n'=0,f'=αη(m-f), m'=βkn-fc+γf-m, c'=vfm-ωn-δΦc where m,n,f and c are functions of t...
Cancer is a significant medical and societal problem. This reality arises from the fact that an expo...
Despite mounting evidence that oncolytic viruses can be effective in treating cancer, understanding ...
Despite mounting evidence that oncolytic viruses can be effective in treating cancer, understanding ...
Cancer is often characterized as a chaotic, poorly regulated growth. Cancer can be viewed as a compl...
In this article we provide homotopy solutions of a cancer nonlinear model describing the dynamics of...
We consider a dynamical model of cancer growth including three interacting cell populations of tumor...
Cancer is a common term for many diseases that can affect anybody. A worldwide leading cause of deat...
We study complex oscillations generated by the de Pillis-Radunskaya model of cancer growth, a model ...
Cancers are complex adaptive diseases regulated by the nonlinear feedback systems between genetic in...
In this letter we present a simple and accessible way to enhance the stable behaviors of a chaotic d...
Bu tez çalışmasında, kanser dinamiği ve kanserin biyolojik olarak davranışını analiz etmek üzere baz...