Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure

One of the fields of applied mathematics is related to model analysis. Biomedical systems are suitable candidates for this field because of their importance in life sciences including therapeutics. Here we deal with the analysis of a model recently proposed by Espinoza-Valdez et al. (2010) for the k...

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Main Authors: Aurora Espinoza-Valdez, Francisco C. Ordaz-Salazar, Edgardo Ugalde, Ricardo Femat
Format: Article
Language:English
Published: Wiley 2013-01-01
Series:Journal of Applied Mathematics
Online Access:http://dx.doi.org/10.1155/2013/396486
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author Aurora Espinoza-Valdez
Francisco C. Ordaz-Salazar
Edgardo Ugalde
Ricardo Femat
author_facet Aurora Espinoza-Valdez
Francisco C. Ordaz-Salazar
Edgardo Ugalde
Ricardo Femat
author_sort Aurora Espinoza-Valdez
collection DOAJ
description One of the fields of applied mathematics is related to model analysis. Biomedical systems are suitable candidates for this field because of their importance in life sciences including therapeutics. Here we deal with the analysis of a model recently proposed by Espinoza-Valdez et al. (2010) for the kidney vasculature developed via angiogenesis. The graph theory allows one to model quantitatively a vascular arterial tree of the kidney in sense that (1) the vertex represents a vessels bifurcation, whereas (2) each edge stands for a vessel including physiological parameters. The analytical model is based on the two processes of sprouting and splitting angiogeneses, the concentration of the vascular endothelial growth factor (VEGF), and the experimental data measurements of the rat kidneys. The fractal dimension depends on the probability of sprouting angiogenesis in the development of the arterial vascular tree of the kidney, that is, of the distribution of blood vessels in the morphology generated by the analytical model. The fractal dimension might determine whether a suitable renal vascular structure is capable of performing physiological functions under appropriate conditions. The analysis can describe the complex structures of the development vasculature in kidney.
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series Journal of Applied Mathematics
spelling doaj-art-25f04398e1ad4309bb690cca9b1fa40e2025-02-03T01:08:55ZengWileyJournal of Applied Mathematics1110-757X1687-00422013-01-01201310.1155/2013/396486396486Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal StructureAurora Espinoza-Valdez0Francisco C. Ordaz-Salazar1Edgardo Ugalde2Ricardo Femat3Departamento de Ciencias Computacionales, CUCEI, Universidad de Guadalajara, Avenida Revolución 1500, CP 44430, Guadalajara, JAL, MexicoUniversidad Politécnica de San Luis Potosí, Urbano Villalón 500, CP 78363, La Ladrillera, SLP, MexicoInstituto de Física UASLP, Universidad Autónoma de San Luis Potosí, Avenida Manuel Nava No. 6., Zona Universitaria, CP 78200, SLP, MexicoLaboratorio para Biodinámica y Sistemas Alineales, División de Matemáticas Aplicadas, IPICYT, Apartado Postal 3-90, CP 78231, Tangamanga, SLP, MexicoOne of the fields of applied mathematics is related to model analysis. Biomedical systems are suitable candidates for this field because of their importance in life sciences including therapeutics. Here we deal with the analysis of a model recently proposed by Espinoza-Valdez et al. (2010) for the kidney vasculature developed via angiogenesis. The graph theory allows one to model quantitatively a vascular arterial tree of the kidney in sense that (1) the vertex represents a vessels bifurcation, whereas (2) each edge stands for a vessel including physiological parameters. The analytical model is based on the two processes of sprouting and splitting angiogeneses, the concentration of the vascular endothelial growth factor (VEGF), and the experimental data measurements of the rat kidneys. The fractal dimension depends on the probability of sprouting angiogenesis in the development of the arterial vascular tree of the kidney, that is, of the distribution of blood vessels in the morphology generated by the analytical model. The fractal dimension might determine whether a suitable renal vascular structure is capable of performing physiological functions under appropriate conditions. The analysis can describe the complex structures of the development vasculature in kidney.http://dx.doi.org/10.1155/2013/396486
spellingShingle Aurora Espinoza-Valdez
Francisco C. Ordaz-Salazar
Edgardo Ugalde
Ricardo Femat
Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
Journal of Applied Mathematics
title Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
title_full Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
title_fullStr Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
title_full_unstemmed Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
title_short Analysis of a Model for the Morphological Structure of Renal Arterial Tree: Fractal Structure
title_sort analysis of a model for the morphological structure of renal arterial tree fractal structure
url http://dx.doi.org/10.1155/2013/396486
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AT ricardofemat analysisofamodelforthemorphologicalstructureofrenalarterialtreefractalstructure