Ismael Ben-Yelun Insenser

Profesor ayudante en mecánica de medios continuos (continuum mechanics teaching assistant)

Universidad Politécnica de Madrid

Spain

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Ismael Ben-Yelun Insenser is an Assistant Professor in the Department of Continuum Mechanics at Universidad Politécnica de Madrid, Spain. His research focuses on the mechanics of lattice materials, topology optimization, and the application of machine learning techniques in estimating fatigue life for composite materials, particularly in the aerospace industry. Recent publications include works on robust topology optimization and non-parametric hyperelastic theories for orthotropic compressible composites.

Articles (8)

Year:

2024

Year:

2024

Year:

2023

Year:

2023

Year:

2023

Year:

2023

Year:

2023

Year:

2021

Collaborators (4)

JOSE MARIA BENITEZ BAENA

Universidad Politécnica de Madrid

SPAIN

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MIGUEL ANGEL SANZ GOMEZ

Universidad Politécnica de Madrid

SPAIN

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Luis Saucedo-Mora

Universidad Politécnica de Madrid

SPAIN

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FRANCISCO JAVIER MONTANS

Universidad Politécnica de Madrid

SPAIN

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Ismael Ben-Yelun Insenser

Research Interests

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Articles (8)

On the data-driven description of lattice materials mechanics

Robust topology optimisation of lattice structures with spatially correlated uncertainties

The Updated Properties Model (UPM): A topology optimization algorithm for the creation of macro–micro optimized structures with variable stiffness

Self-learning locally-optimal hypertuning using maximum entropy, and comparison of machine learning approaches for estimating fatigue life in composite materials of the aerospace industry

GAM: General Auxetic Metamaterial with Tunable 3D Auxetic Behavior Using the Same Unit Cell Boundary Connectivity

Topology optimization approach for functionally graded metamaterial components based on homogenization of mechanical variables

Self-learning locally-optimal hypertuning using maximum entropy, and comparison of machine learning approaches for estimating fatigue life in composite materials of the aerospace industry

A finite strain non-parametric hyperelastic extension of the classical phenomenological theory for orthotropic compressible composites

Collaborators (4)

JOSE MARIA BENITEZ BAENA

MIGUEL ANGEL SANZ GOMEZ

Luis Saucedo-Mora

FRANCISCO JAVIER MONTANS

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