TY - JOUR
T1 - Study of a Continuous Fractional-Order Dynamical System of Fibrosis of Liver
AU - Wang, Min
AU - Tahir, Sana
AU - Naz, Hafsa
AU - El-Shorbagy, Mohammed A.
AU - ur Rahman, Mati
N1 - Publisher Copyright:
© 2023 NSP Natural Sciences Publishing Cor
PY - 2023
Y1 - 2023
N2 - In this manuscript, our objective is to develop a fractional-order linear model (FOLM) that characterizes the behavior of the human liver, specifically focusing on the dynamics of bromsulphthalein storage and transfer, particularly in the context of chronic alcoholic liver disease. To achieve this, we employ a novel approach utilizing non-orthogonal Bernstein polynomials to construct operational matrices. These matrices play a crucial role in describing the fractional-order coupled dynamics within the human liver system. We assessed the presence and stability of a solution through the utilization of well-established fractional calculus findings. Drawing from precise clinical data, we present numerical instances accompanied by graphical representations illustrating the fractional order dynamics inherent in our proposed model. To reinforce the credibility and efficacy of our novel approach, we conclude with a contrastive analysis against integer-order outcomes. The resultant matrix equation, stemming from the fractional operational matrices, is systematically elucidated utilizing the computational capabilities of the mathematical software Matlab. This step unveils the intricate details of the transformed system, shedding light on the underlying dynamics.
AB - In this manuscript, our objective is to develop a fractional-order linear model (FOLM) that characterizes the behavior of the human liver, specifically focusing on the dynamics of bromsulphthalein storage and transfer, particularly in the context of chronic alcoholic liver disease. To achieve this, we employ a novel approach utilizing non-orthogonal Bernstein polynomials to construct operational matrices. These matrices play a crucial role in describing the fractional-order coupled dynamics within the human liver system. We assessed the presence and stability of a solution through the utilization of well-established fractional calculus findings. Drawing from precise clinical data, we present numerical instances accompanied by graphical representations illustrating the fractional order dynamics inherent in our proposed model. To reinforce the credibility and efficacy of our novel approach, we conclude with a contrastive analysis against integer-order outcomes. The resultant matrix equation, stemming from the fractional operational matrices, is systematically elucidated utilizing the computational capabilities of the mathematical software Matlab. This step unveils the intricate details of the transformed system, shedding light on the underlying dynamics.
KW - algebraic matrix equation
KW - Bernstein polynomials
KW - FOLM
KW - operational matrix
UR - http://www.scopus.com/inward/record.url?scp=85173716273&partnerID=8YFLogxK
U2 - 10.18576/pfda/090403
DO - 10.18576/pfda/090403
M3 - Article
AN - SCOPUS:85173716273
SN - 2356-9336
VL - 9
SP - 565
EP - 575
JO - Progress in Fractional Differentiation and Applications
JF - Progress in Fractional Differentiation and Applications
IS - 4
ER -