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Alejandro Sebastián Aguirre Ruz

Professor Assistant

Universidad de Santiago de Chile

Santiago, Chile

My research consists in developing techniques to solve Fluid-Structure Interaction problems using Finite Elements. Therefore, I am well versed in Computer Fluid Dynamic and Computer Solid Mechanics.

Ingeniería Civil Mecánica, UNIVERSIDAD DE SANTIAGO DE CHILE. Chile, 2018
Magister en Ingeniería Mecánica, UNIVERSIDAD DE CHILE. Chile, 2018
PhD. Structural Analysis, UNIVERSIDAD POLITECNICA DE CATALUNA. Chile, 2024

Profesor instructor Part Time

UNIVERSIDAD DE SANTIAGO DE CHILE

Ingeniería

Santiago, Chile

2017 - 2019
Profesor Asistente Part Time

UNIVERSIDAD DE CHILE

Ingeniería

Santiago, Chile

2020 - 2021
Profesor Asistente Part Time

UNIVERSIDAD DE CHILE

Ingeniería

Santiago, Chile

2021 - 2024
Profesor Asistente Full Time

UNIVERSIDAD DE CHILE

Ingeniería

Santiago, Chile

2024 - A la fecha


Stress-displacement stabilized finite element analysis of thin structures using solid-shell elements, Part I: On the need of interpolating the stresses Article ISI (2024)
Stress-displacement stabilized finite element analysis of thin structures using Solid-Shell elements, Part II: Finite strain hyperelasticity Castanar, I. Article ISI (2024)
A variational multiscale stabilized finite element formulation for Reissner-Mindlin plates and Timoshenko beams Article ISI SCOPUS Finite Elements in Analysis and Design (2023)
Numerical study of the effect of blockage ratio on the flow past one and two cylinders in tandem for different power-law fluids Article ISI SCOPUS APPLIED MATHEMATICAL MODELLING (2021)
Forced convection of elastoviscoplastic fluids in non-circular tubes Letelier M.F. Article ISI SCOPUS Chemical Engineering Science (2020)
Numerical study of bifurcation blood flows using three different non-Newtonian constitutive models Abugattas C. Article ISI SCOPUS APPLIED MATHEMATICAL MODELLING (2020)
Pseudoplastic fluid flows for different Prandtl numbers: Steady and time-dependent solutions Article ISI SCOPUS International Journal of Thermal Sciences (2019)
Stationary and time-dependent numerical approximation of the lid-driven cavity problem for power-law fluid flows at high Reynolds numbers using a stabilized finite element formulation of the VMS type Codina R.; Baiges J. Article ISI SCOPUS JOURNAL OF NON-NEWTONIAN FLUID MECHANICS (2018)

Marcela Cruchaga

Académico / Full Prof.

MECÁNICA

UNIVERSIDAD DE SANTIAGO DE CHILE - DEPTO. ING. MECÁNICA

Santiago de Chile, Chile

Ernesto Castillo

Professor (Asocciate)

UNIVERSIDAD DE SANTIAGO DE CHILE

Santiago, Chile

Alejandro Aguirre

Professor Assistant

Ingeniería Mecánica

Universidad de Santiago de Chile

Santiago, Chile

Alejandro Sebastián Aguirre Ruz

Líneas de Investigación

Educación

Ingeniería Civil Mecánica, UNIVERSIDAD DE SANTIAGO DE CHILE. Chile, 2018

Magister en Ingeniería Mecánica, UNIVERSIDAD DE CHILE. Chile, 2018

PhD. Structural Analysis, UNIVERSIDAD POLITECNICA DE CATALUNA. Chile, 2024

Experiencia Académica

Profesor instructor Part Time

Profesor Asistente Part Time

Profesor Asistente Part Time

Profesor Asistente Full Time

Article (8)

Stress-displacement stabilized finite element analysis of thin structures using solid-shell elements, Part I: On the need of interpolating the stresses

Stress-displacement stabilized finite element analysis of thin structures using Solid-Shell elements, Part II: Finite strain hyperelasticity

A variational multiscale stabilized finite element formulation for Reissner-Mindlin plates and Timoshenko beams

Numerical study of the effect of blockage ratio on the flow past one and two cylinders in tandem for different power-law fluids

Forced convection of elastoviscoplastic fluids in non-circular tubes

Numerical study of bifurcation blood flows using three different non-Newtonian constitutive models

Pseudoplastic fluid flows for different Prandtl numbers: Steady and time-dependent solutions

Stationary and time-dependent numerical approximation of the lid-driven cavity problem for power-law fluid flows at high Reynolds numbers using a stabilized finite element formulation of the VMS type

Marcela Cruchaga

Ernesto Castillo

Alejandro Aguirre