Eduardo Soudah Profile : Scipedia

Documents published in Scipedia

Development of a predictive model for rheumatoid arthritis mortality using random survival forest
L. Rodríguez-Rodríguez, J. Lezcano, E. Soudah, J. Jover, I. González-Álvarez, F. Salazar, L. Abásolo

Annals of the Rheumatic Diseases (2017). Vol. 76 (S2), pp. 520

Abstract
Different machine learning methods have been used to develop predictive models of high quality and precision [1]. Among them, Random Survival Forests (RSF) has been proposed as an alternative to traditional survival models [2], being able to overcome most of the limitation of traditional survival techniques, such as Cox proportional hazards models. Objectives Our objective was to develop and internally validate a predictive model for rheumatoid arthritis (RA) mortality using Random Survival Forests (RSF). Methods Retrospective longitudinal study involving 1,461 patients diagnosed with RA between January 1994 and August 2011, and followed at the outpatient clinic of the Rheumatology Department of the Hospital Clínico San Carlos (Madrid, Spain) until death or September 2013. Demographic and clinical-related variables collected during the first two years after disease diagnosis were used. RSF models were developed, based on 1,000 trees. 100 iterations of each model were performed to measure the mean and standard deviation (SD) of the predictive error and the integrated Brier score (IBS). Missing values were imputed using the function implemented by the randomForestSRC package [3]. The predictive capacity of the variables was assessed using the “variable importance” (VIMP). Two models were constructed using the log-rank (MLG) or log-rank score (MLGS) splitting rules. The model with the lowest prediction error was selected. Next, those variables with negative VIMP were excluded and a final model developed. Results 148 patients died (10.1%). MLG showed the lowest prediction error. All variables exhibited a positive VIMP. Final model showed a mean (SD) prediction error and IBS of 0.187 (0.002) and 0.150 (0.003) respectively. The most important predictor variables were age at diagnosis, median erythrocyte sedimentation rate and number of hospital admissions in the first 2 years after RA diagnosis. Conclusions We developed an accurate and precise model for RA mortality using RSF. Age and disease activity showed the highest influence in mortality.
Abstract
Different machine learning methods have been used to develop predictive models of high quality and precision [1]. Among them, Random Survival Forests (RSF) has been [...]
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Statistical analysis for rupture risk prediction of abdominal aortic aneurysms (AAA) based on its morphometry
G. Vilalta, J. Vilalta, E. Soudah, F. Nieto, L. Lipsa, M. Pérez, B. López, C. Vaquero

Journal of Mechanics in Medicine and Biology (2017). Vol. 17 (4), pp. 1-23

Abstract
The morphometry of the abdominal aortic aneurysms (AAA) it has been recognized as one of the main factors that may predispose its rupture. The variation of the AAA morphometry, over time, induces modifications in hemodynamic behavior which, in turn, alters the spatial and temporal distribution of hemodynamic stress on the aneurismatic wall, establishing a bidirectional process that can influence the rupture phenomenon. In order to evaluate potential correlations between the main geometric parameters characterizing the AAA and hemodynamic stresses, 13 unrupture AAA patient-specific models were created. To AAA geometric characterization, twelve indices based on lumen center line were defined and determined. The computing of temporal and spatial distributions of hemodynamic stresses was conducted through Computational Fluid Dynamics. Statistical techniques were used to assess the relationships between the hemodynamic parameters and the different geometrical indices of the AAA. Regression analyses were conducted to obtain linear predictor models for hemodynamic stresses using the different indices defined in this paper as predictor variables. The statistical analysis confirmed that the length L, the asymmetry and the saccular index significantly influenced the hemodynamic stresses. The results obtained show the potential of the use of statistical techniques in predicting the rupture risk of patient-specific AAA.
Abstract
The morphometry of the abdominal aortic aneurysms (AAA) it has been recognized as one of the main factors that may predispose its rupture. The variation of the AAA morphometry, [...]
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Valoración de los ángulos del cuello del aneurisma de aorta abdominal. Estudio en 507 pacientes
C. Vaquero, L. Río, E. Norberto, N. Cenizo, J. Brizuela, M. Martín, G. Vilalta, J. Vilalta, F. Nieto, M. Pérez, E. Soudah, L. Lipsa, J. Montes

Revista Española de Investigaciones quirúrgicas (2016). Vol. 19 (4), pp. 153-156 (Preprint)

Abstract
Angulation in different planes of the neck of abdominal aortic aneurysms may be considered a limiting factor in the implantation of different prostheses in the treatment of this pathology. It is necessary to make an assessment of the angles in different planes in routine studies prior to the planning of the procedures and especially by AngioTAC. The study evaluated the measurement of 507 patients with abdominal aortic aneurysms and treated endovascular procedures and of whom the complete information was available at the level of neck angulations. In a prospective and descriptive study the situation of this aortic sector was evaluated, contributing information about the tendency in the morphological presentation of the aorta in patients with this aetiology
Abstract
Angulation in different planes of the neck of abdominal aortic aneurysms may be considered a limiting factor in the implantation of different prostheses in the treatment of [...]
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Study of angulations of visceral abdominals arteries in their abdominal aorta emergency
C. Vaquero, G. Vilalta, J. Vilalta, F. Nieto, M. Pérez, E. , E. Soudah, L. Lipsa, L. Río, E. Norberto, N. Cenizo, J. Brizuela, M. Martín, J. Montes

Revista Iberoaméricana de Cirugía Vascular (2016). Vol. 4 (4), pp. 184-189 (Preprint)

Abstract
Recently, fenestrated, branched and stent grafts have been developed in order to treat endovascular aneurysmal pathology at the level of the aorta in the emergence of the visceral arteries. For the implantation of stents, it is necessary to have a precise planimetry of the origin and orientation of the visceral branches in order firstly to perform the correct manufacture of the endoprosthesis and secondly the placement with precision of the same. The knowledge of the emergency of the vessels of the aortic wall and its orientation knowing the angle of emergency. The data obtained for the planning of the endovascular treatment of 37 patients in order to obtain data from the descriptive point of view of this sector.
Abstract
Recently, fenestrated, branched and stent grafts have been developed in order to treat endovascular aneurysmal pathology at the level of the aorta in the emergence of the [...]
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Estimation of wall shear stress using 4D flow cardiovascular MRI and computational fluid dynamics
E. Soudah, J. Casacuberta, P. Gámez-Montero, G. Raush, R. Castilla

Journal of Mechanics in Medicine and Biology (2016). Vol. 17 (3), pp. 1-16 (Preprint)

Abstract
Company In the last few years, wall shear stress (WSS) has arisen as a new diagnostic indicator in patients with arterial disease. There is a substantial evidence that the WSS plays a significant role, together with hemodynamic indicators, in initiation and progression of the vascular diseases. Estimation of WSS values, therefore, may be of clinical significance and the methods employed for its measurement are crucial for clinical community. Recently, four-dimensional (4D) flow cardiovascular magnetic resonance (CMR) has been widely used in a number of applications for visualization and quantification of blood flow, and although the sensitivity to blood flow measurement has increased, it is not yet able to provide an accurate three-dimensional (3D) WSS distribution. The aim of this work is to evaluate the aortic blood flow features and the associated WSS by the combination of 4D flow cardiovascular magnetic resonance (4D CMR) and computational fluid dynamics technique. In particular, in this work, we used the 4D CMR to obtain the spatial domain and the boundary conditions needed to estimate the WSS within the entire thoracic aorta using computational fluid dynamics. Similar WSS distributions were found for cases simulated. A sensitivity analysis was done to check the accuracy of the method. 4D CMR begins to be a reliable tool to estimate the WSS within the entire thoracic aorta using computational fluid dynamics. The combination of both techniques may provide the ideal tool to help tackle these and other problems related to wall shear estimation
Abstract
Company In the last few years, wall shear stress (WSS) has arisen as a new diagnostic indicator in patients with arterial disease. There is a substantial evidence that the [...]
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Mechanical stress in abdominal aortic aneurysms using artificial neural networks
E. Soudah, J. Rodríguez, R. López

Journal of Mechanics in Medicine and Biology (2015). Vol. 15 (3), p. 1550029

Abstract
Combination of numerical modeling and artificial intelligence (AI) in bioengineering processes are a promising pathway for the further development of bioengineering sciences. The objective of this work is to use Artificial Neural Networks (ANN) to reduce the long computational times needed in the analysis of shear stress in the Abdominal Aortic Aneurysm (AAA) by finite element methods (FEM). For that purpose two different neural networks are created. The first neural network (Mesh Neural Network, MNN) creates the aneurysm geometry in terms of four geometrical factors (asymmetry factor, aneurism diameter, aneurism thickness, aneurism length). The second neural network (Tension Neural Network, TNN) combines the results of the first neural network with the arterial pressure (new factor) to obtain the maximum stress distribution (output variable) in the aneurysm wall. The use of FEM for the analysis and design of bioengineering processes often requires high computational costs, but if this technique is combined with artificial intelligence, such as neural networks, the simulation time is significantly reduced. The shear stress obtained by the artificial neural models developed in this work achieved 95% of accuracy respect to the wall stress obtained by the FEM. On the other hand, the computational time is significantly reduced compared to the FEM.
Abstract
Combination of numerical modeling and artificial intelligence (AI) in bioengineering processes are a promising pathway for the further development of bioengineering [...]
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Modeling human tissues : an efficient integrated methodology
G. Gavidia, E. Soudah, M. Cerrolaza, M. Martín

Biomedical engineering: applications, basis and communications (2014). Vol. 26 (1), pp. 1-21

Abstract
Geometric models of human body organs are obtained from imaging techniques like computed tomography (CT) and magnetic resonance image (MRI) that oallow an accurate visualization of the inner body, thus providing relevant information about their its structure and pathologies. Next, these models are used to generate surface and volumetric meshes, which can be used further for visualization, measurement, biomechanical simulation, rapid prototyping and prosthesis design. However, going from geometric models to numerical models is not an easy task, being necessary to apply image-processing techniques to solve the complexity of human tissues and to get more simplified geometric models, thus reducing the complexity of the subsequent numerical analysis. In this work, an integrated and efficient methodology to obtain models of soft tissues like gray and white matter of brain and hard tissues like jaw and spine bones is proposed. The methodology is based on image-processing algorithms chosen according to some characteristics of the tissue: type, intensity profiles and boundaries quality. First, low-quality images are improved by using enhancement algorithms to reduce image noise and to increase structures contrast. Then, hybrid segmentation for tissue identification is applied through a multi-stage approach. Finally, the obtained models are resampled and exported in formats readable by computer aided design (CAD) tools. In CAD environments, this data is used to generate discrete models using finite element methed (FEM) or other numerical methods like the boundary element method (BEM). Results have shown that the proposed methodology is useful and versatile to obtain accurate geometric models that can be used in several clinical cases to obtain relevant quantitative and qualitative information.
Abstract
Geometric models of human body organs are obtained from imaging techniques like computed tomography (CT) and magnetic resonance image (MRI) that oallow an accurate visualization [...]
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Computational modeling of the fluid flow and the flexible intimal flap in type B aortic dissection via a monolithic arbitrary Lagrangian/Eulerian fluid-structure interaction model
P. Ryzhakov, E. Soudah, N. Dialami

International journal for numerical methods in biomedical engineering (2019). Vol. 35 (11), pp. e3239;1-e3239:21

Abstract
In the present work, we perform numerical simulations of the fluid flow in type B aortic dissection (AD), accounting for the flexibility of the intimal flap. The interaction of the flow with the intimal flap is modeled using a monolithic arbitrary Lagrangian/Eulerian fluid-structure interaction model. The model relies on choosing velocity as the kinematic variable in both domains (fluid and solid) facilitating the coupling. The fluid flow velocity and pressure evolution at different locations is studied and compared against the experimental evidence and the formerly published numerical simulation results. Several tear configurations are analyzed. Details of the fluid flow in the vicinity of the tears are highlighted. Influence of the tear size upon the fluid flow and the flap deformation is discussed.
Abstract
In the present work, we perform numerical simulations of the fluid flow in type B aortic dissection (AD), accounting for the flexibility of the intimal flap. The interaction [...]
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Computational modeling of the fluid flow in type B aortic dissection using a modified finite element embedded formulation
R. Zorrilla, E. Soudah, R. Rossi

Biomechanics and Modeling in Mechanobiology (2020). (Preprint)

Abstract
This work explores the use of an embedded computational fluid dynamics method to study the type B aortic dissection. The use of the proposed technique makes it possible to easily test different intimal flap configurations without any need of remeshing. To validate the presented methodology, we take as reference test case an in vitro experiment present in the literature. This experiment, which considers several intimal flap tear configurations (number, size and location), mimics the blood flow in a real type B aortic dissection. We prove the correctness and suitability of the presented approach by comparing the pressure values and waveform. The obtained results exhibit a remarkable similarity with the experimental reference data. Complementary, we present a feasible surgical application of the presented computer method. The aim is to help the clinicians in the decision making before the type B aortic dissection surgical fenestration. The capabilities of the proposed technique are exploited to efficiently create artificial reentry tear configurations. We highlight that only the radius and center of the reentry tear need to be specified by the clinicians, without any need to modify neither the model geometry nor the mesh. The obtained computational surgical fenestration results are in line with the medical observations in similar clinical studies.
Abstract
This work explores the use of an embedded computational fluid dynamics method to study the type B aortic dissection. The use of the proposed technique makes it possible to [...]
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Desarrollo de un soporte metálico intravascular
M. Bordone, E. Oñate, E. Soudah, M. Chiumenti

(2008). Research Report, Nº PI317

Abstract
Las enfermedades cardiovasculares son la primera causa de muerte de la población Europea. Se estima que la mortalidad por enfermedades cardiovasculares es la mitad de la mortalidad total en toda Europa y provoca 4,35 millones de fallecidos cada año en los 52 estados miembros de la Región Europea. Según la Organización Mundial de la Sanidad (OMS) más de 1,9 millones de muertos en la Unión Europea, además de ser la principal causa de deshabilitad y reducción de calidad de vida. Estos tipos de enfermedades afectan sobre todo a la mayor parte de la población, y, sabiendo que el porcentaje de ancianos en la nuestra sociedad sigue subiendo, se puede fácilmente entender que las cardio-patologías puedan constituir siempre un riesgo elevado para la salud de los países occidentales. La cirugía moderna busca cada día soluciones menos invasivas, como por ejemplo a través de cirugía llamada mini-invasiva. La cirugía mini-invasiva es la técnica quirúrgica que consiente acceder a cavidades internas sin operar incisiones (cirugía en abierto). En esta definición, es trivial intuir que entran sobre todo las técnicas endoscópicas que han permitido realizar muchas operaciones de diferente grado de peligrosidad produciendo numerosos beneficios y reduciendo los índices de riesgo. En la cirugía cardiovascular no es raro encontrar problemáticas de tener que insertar aparatos como stent, válvulas cardiacas, sondas y muchas cosas más a través pequeños orificios (como vasos sanguíneos, por ejemplo, la femoral, la aorta la carótida o la subclavia). Estos aparatos van a ser posicionados o conducidos a través de guías (catéteres) que los conducen hasta el sitio destinado. El hecho de utilizar catéteres que tienen que penetrar por estas vías obliga a que estos aparatos respecten dimensiones muy pequeñas. Es interesante entonces estudiar como estas estructuras deben de soportar esfuerzos de compresión y de expansión cuando vienen insertadas en el catéter y luego se sueltan. El ejemplo en el cual enfocaremos nuestro estudio va a ser un soporte metálico intravascular para cualquier aparato necesite ser anclado en el interior de una vena o arteria.
Abstract
Las enfermedades cardiovasculares son la primera causa de muerte de la población Europea. Se estima que la mortalidad por enfermedades cardiovasculares es la mitad [...]
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Articles (Documents not available in Scipedia)

Correlation between Hemodynamic Stresses and Morphometric Indices as a Predictor Potential of Abdominal Aortic Aneurysm Rupture
JA Vilalta-Alonso, E Soudah-Prieto, F Nieto-Palomo, L Lipsa, ...

Austin J Vasc Med 3 (1), 1014, 2016
Computational fluid dynamics indicators to improve cardiovascular pathologies
E Soudah Prieto

Universitat Politècnica de Catalunya, 2016
ESTIMATION OF WALL SHEAR STRESS USING 4D FLOW CARDIOVASCULAR MRI AND COMPUTATIONAL FLUID DYNAMICS
E SOUDAH, J CASACUBERTA, PJ GAMEZ-MONTERO, JS PÉREZ, ...

Journal of Mechanics in Medicine and Biology, 1750046, 2016
Valoración de los ángulos del cuello del aneurisma de aorta abdominal. Estudio en 507 pacientes.
C Vaquero, E Soudah Prieto

Revista española de investigaciones quirúrgicas 19 (4), 153-156, 2016
Study of angulations of visceral abdominals arteries in their abdominal aorta emergency
C Vaquero, E Soudah Prieto

Iberoamerican journal of vascular surgery 4 (4), 184-189, 2016
Preliminary Correlations for Characterizing the Morphology of Abdominal Aortic Aneurysms as Predictor of Rupture
GV Alonso, E Soudah, JAV Alonso, L Lipsa, F Nieto, MÁ Pérez, ...

Mathematical Modeling and Computational Intelligence in Engineering ..., 2016
REVISTA ESPAÑOLA DE INVESTIGACIONES QUIRÚRGICAS
CV Puerta, L Pino, JC Cagigas, E Gutiérrez, M Bolado, JL Ruíz, ...

I SEE PROCEDURAL ADVANTAGES THRU, 105, 2015
Numerical methods and applications in biomechanical modeling 2014
E Soudah, EYK Ng, Z Sun, S Maiti

Computational and mathematical methods in medicine 2015, 2015
Mechanical stress in abdominal aortic aneurysms using artificial neural networks
E Soudah, JF Rodriguez, R Lopez

Journal of Mechanics in Medicine and Biology 15 (03), 1550029, 2015
Estudio paramétrico de tensiones hemodinámicas en modelos de aneurismas de aorta abdominal
E Soudah, G Vilalta, M Bordone, F Nieto, JA Vilalta, C Vaquero

Revista Internacional de Métodos Numéricos para Cálculo y Diseño en ..., 2015
Validation of numerical flow simulations against in vitro phantom measurements in different type B aortic dissection scenarios
E Soudah, P Rudenick, M Bordone, B Bijnens, D García-Dorado, ...

Computer methods in biomechanics and biomedical engineering 18 (8), 805-815, 2015
Hemodynamic on abdominal aortic aneurysm: Parametric study
E Soudah, G Vilalta, M Bordone, F Nieto, JA Vilalta, C Vaquero

REVISTA INTERNACIONAL DE METODOS NUMERICOS PARA CALCULO Y DISENO EN ..., 2015
Hemodynamic on abdominal aortic aneurysm: Parametric study
E Soudah Prieto

Revista internacional de métodos numéricos para cálculo y diseño en ..., 2014
Advanced Medical Expert Support Tool (A-MEST): EHR-Based Integration of Multiple Risk Assessment Solutions for Congestive Heart Failure Patients
CC Barca, JM Rodríguez, PE Puddu, M Luštrek, B Cvetković, M Bordone, ...

XIII Mediterranean Conference on Medical and Biological Engineering and ..., 2014
Modeling human tissues: an efficient integrated methodology
M Cerrolaza, G Gavidia, E Soudah, M Martín-Landrove

Biomedical Engineering: Applications, Basis and Communications 26 (01), 1450012, 2014
A reduced-order model based on the coupled 1D-3D finite element simulations for an efficient analysis of hemodynamics problems
E Soudah, R Rossi, S Idelsohn, E Oñate

Computational Mechanics 54 (4), 1013-1022, 2014
A 1d lumped-parameter/3d CFD approach for pressure drop in the aortic coarctation
E Soudah, M Bordone, P Davdand, R Rossi

Statistical Atlases and Computational Models of the Heart. Imaging and ..., 2013
Data analisis of 4D phase contrast MRI in healthy and non-healthy patients
E Soudah, M Bordone, M Rodriguez, JS Perez, CH Li, F Carreras

Image and Signal Processing and Analysis (ISPA), 2013 8th International ..., 2013
Predicción de las tensiones hemodinámicas de Aneurisma de Aorta Abdominal en función de su morfología
G Vilalta, E Soudah, JA Vilalta, L Lipsa, M Bodorne, C Vaquero

Proceedings of XI Congreso Iberoamericano de Ingeniería Mecánica, 2013
Numerical methods and applications in biomechanical modeling
EYK Ng, HS Borovetz, E Soudah, Z Sun

Computational and mathematical methods in medicine 2013, 2013
CFD Modelling of Abdominal Aortic Aneurysm on Hemodynamic Loads using a Realistic Geometry with CT
E Soudah, EYK Ng, TH LOONG, M Bordone, U Pua, N Sriram

Computational and Mathematical Methods in Medicine 13 (Article ID 472564), 9, 2013
Mandibular advancement devices in the treatment of obstructive sleep apnea syndrome
E Soudah, M Bordone, A Álvarez Suárez, JM Cobo Plana, ...

Revista Internacional de Métodos Numéricos para Calculo y Diseño en Ingeniería, 2012
Explicit time integration with large time steps for the heat flow equations
P Becker, N Nigro, S Idelsohn

REVISTA INTERNACIONAL DE METODOS NUMERICOS PARA CALCULO Y DISENO EN ..., 2012
Hemodynamic features associated with abdominal aortic aneurysm (AAA) geometry
G Vilalta, E Soudah, JA Vilalta, F Nieto, M Bordone, MÁ Pérez, C Vaquero

Journal of Biomechanics 45, S37, 2012
Supervised learning modelization and segmentation of cardiac scar in delayed enhanced MRI
L Lara, S Vera, F Perez, N Lanconelli, R Morisi, B Donini, D Turco, ...

International Workshop on Statistical Atlases and Computational Models of ..., 2012
Comportamiento de los dispositivos mandibulares en el tratamiento de la apnea del sueño
E Soudah, M Bordone, A Álvarez, J Cobo, F De Carlos, B Suarez

Revista Internacional de Métodos Numéricos para Cálculo y Diseño en ..., 2012
Idealized Abdominal Aortic Aneurysm (AAA) Geometry as Predictor of Hemodynamics Stresses
E Soudah, G Vilalta, JA Vilalta, M Bordone, F Nieto, MA Pérez, ...

Journal of Biomechanics 45 (07), Pages S37, 2012
Anatomía computacional: una metodología eficiente basada en imágenes médicas para la generación de modelos 3D
GE Gavidia Bovadilla, M Martín Landrove, ME Cerrolaza Rivas, ...

Centre Internacional de Mètodes Numèrics en Enginyeria (CIMNE), 2011
Discrete modeling of human body using preprocessing and segmentation techniques of medical images
G Gavidia, E Soudah, M Martín-Landrove, M Cerrolaza

Revista Internacional de Métodos Numéricos para Cálculo y Diseño en ..., 2011
Effectiveness of the Mandibular Advancement Device for treating Sleep Apnea and Snoring
J Cobo, F de Carlos, B Suárez, E Soudah, M Bordone, J Irazábal, ...

Southerm Biomedical Engineering Conference (27SBEC). Texas_USA, 2011
Computer-aided diagnosis of dementia using medical imaging processing and artificial neural networks.
G Gavidia, R Lopez, E Soudah

Computational Vision and Medical Image Processing: VipIMAGE 2011, 51, 2011
Medical-GiD: from medical images to simulations, 4D MRI flow analysis
E Soudah, J Pennecot, JS Pérez, M Bordone, E Oñate

Computational Vision and Medical Image Processing, 145-160, 2011
Generación de modelos discretos de tejidos del ser humano a través del preprocesamiento y segmentación de imágenes médicas
G Gavidia, E Soudah, M Martín-Landrove, M Cerrolaza

Revista Internacional de Métodos Numéricos para Cálculo y Diseño en ..., 2011
Study of flow phenomena in aortic dissection
M Bordone, E Oñate, P Rudenick, B Bijnens, E Soudah

Barcelona: GiD Congress, 2010
A multi-method approach towards understanding the pathophysiology of aortic dissections–the complementary role of in-silico, in-vitro and in-vivo information
PA Rudenick, M Bordone, BH Bijnens, E Soudah, E Oñate, ...

International Workshop on Statistical Atlases and Computational Models of ..., 2010
Influence of tear configuration on false and true lumen haemodynamics in type B aortic dissection
PA Rudenick, M Bordone, BH Bijnens, E Soudah, E Oñate, ...

Engineering in Medicine and Biology Society (EMBC), 2010 Annual ..., 2010
One-dimensional numerical model of arteries in GID
E Soudah, E Oñate

GID CONFERENCE 2009, 2009
Fluid-Structure Interaction Applied to Blood Flow Simulations
E Soudah, E Oñate, J García, JS Pérez, A Mena, E Heindenreich, ...

Advances in Computational Vision and Medical Image Processing 13, 253-271, 2009
Fluid-Structure interaction applied to blood flow simulations
M Doblaré, J Garcia, E Heidenreich, A Mena, E Oñate, J Pérez, ...

Tavares, 2009
A one-dimensional numerical model for the simulation of the blood flow on arteries.
E Soudah, F Mussi, E Oñate

ECCOMAS 2009, 2009
Neural networks for simulation the mechanical stress in abdominal aneurysm.
JF Rodriguez, E Soudah, R López, M Doblaré, E Oñate

CIMENICS 2008, 2008

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Documents published in Scipedia

Articles (Documents not available in Scipedia)

Correlation between Hemodynamic Stresses and Morphometric Indices as a Predictor Potential of Abdominal Aortic Aneurysm Rupture

Computational fluid dynamics indicators to improve cardiovascular pathologies

ESTIMATION OF WALL SHEAR STRESS USING 4D FLOW CARDIOVASCULAR MRI AND COMPUTATIONAL FLUID DYNAMICS

Valoración de los ángulos del cuello del aneurisma de aorta abdominal. Estudio en 507 pacientes.

Study of angulations of visceral abdominals arteries in their abdominal aorta emergency

Preliminary Correlations for Characterizing the Morphology of Abdominal Aortic Aneurysms as Predictor of Rupture

REVISTA ESPAÑOLA DE INVESTIGACIONES QUIRÚRGICAS

Numerical methods and applications in biomechanical modeling 2014

Mechanical stress in abdominal aortic aneurysms using artificial neural networks

Estudio paramétrico de tensiones hemodinámicas en modelos de aneurismas de aorta abdominal

Validation of numerical flow simulations against in vitro phantom measurements in different type B aortic dissection scenarios

Hemodynamic on abdominal aortic aneurysm: Parametric study

Hemodynamic on abdominal aortic aneurysm: Parametric study

Advanced Medical Expert Support Tool (A-MEST): EHR-Based Integration of Multiple Risk Assessment Solutions for Congestive Heart Failure Patients

Modeling human tissues: an efficient integrated methodology

A reduced-order model based on the coupled 1D-3D finite element simulations for an efficient analysis of hemodynamics problems

A 1d lumped-parameter/3d CFD approach for pressure drop in the aortic coarctation

Data analisis of 4D phase contrast MRI in healthy and non-healthy patients

Predicción de las tensiones hemodinámicas de Aneurisma de Aorta Abdominal en función de su morfología

Numerical methods and applications in biomechanical modeling

CFD Modelling of Abdominal Aortic Aneurysm on Hemodynamic Loads using a Realistic Geometry with CT

Mandibular advancement devices in the treatment of obstructive sleep apnea syndrome

Explicit time integration with large time steps for the heat flow equations

Hemodynamic features associated with abdominal aortic aneurysm (AAA) geometry

Supervised learning modelization and segmentation of cardiac scar in delayed enhanced MRI

Comportamiento de los dispositivos mandibulares en el tratamiento de la apnea del sueño

Idealized Abdominal Aortic Aneurysm (AAA) Geometry as Predictor of Hemodynamics Stresses

Anatomía computacional: una metodología eficiente basada en imágenes médicas para la generación de modelos 3D

Discrete modeling of human body using preprocessing and segmentation techniques of medical images

Effectiveness of the Mandibular Advancement Device for treating Sleep Apnea and Snoring

Computer-aided diagnosis of dementia using medical imaging processing and artificial neural networks.

Medical-GiD: from medical images to simulations, 4D MRI flow analysis

Generación de modelos discretos de tejidos del ser humano a través del preprocesamiento y segmentación de imágenes médicas

Study of flow phenomena in aortic dissection

A multi-method approach towards understanding the pathophysiology of aortic dissections–the complementary role of in-silico, in-vitro and in-vivo information

Influence of tear configuration on false and true lumen haemodynamics in type B aortic dissection

One-dimensional numerical model of arteries in GID

Fluid-Structure Interaction Applied to Blood Flow Simulations

Fluid-Structure interaction applied to blood flow simulations

A one-dimensional numerical model for the simulation of the blood flow on arteries.

Neural networks for simulation the mechanical stress in abdominal aneurysm.

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ARAUJO, LEILSON 768

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