Fenómeno de resonancia mediante impresión 3D y mecánica computacional

Adriana Anel Téllez Méndez; Marino Viveros Mora; Gustavo M. Minquiz Xolo; Gonzalo Espinosa Cuatlapantzi; Javier Flores Méndez

doi:10.61117/ipsumtec.v8i3.384

Authors

Adriana Anel Téllez Méndez National Technological Institute of Mexico https://orcid.org/0000-0003-3720-3728
Marino Viveros Mora National Technological Institute of Mexico
Gustavo M. Minquiz Xolo Distinguished Autonomous University of Puebla
Gonzalo Espinosa Cuatlapantzi National Technological Institute of Mexico
Javier Flores Méndez Distinguished Autonomous University of Puebla

DOI:

https://doi.org/10.61117/ipsumtec.v8i3.384

Keywords:

3D printing, Cantilever beam, Computational mechanics, Mechanical vibrations, Resonance

Abstract

This manuscript demonstrates a learning strategy both in the classroom and in a laboratory environment. This is summarized in studying the dynamic response of cantilever beams with the aim of simulating vibrating bar tachometers. Using three-dimensional printing, the presented prototype is a good choice to study the resonance phenomenon. It is shown that cantilever bars with the same length react in harmony when only one of them is excited to a single particular force.

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Author Biographies

Adriana Anel Téllez Méndez , National Technological Institute of Mexico

Adriana Anel Téllez Méndez holds a Master's degree in Administration from the “Popular Autonomous University of the State of Puebla”, México. Her basic academic training is as an Industrial Engineer. She currently works at the "Technological Institute of Puebla", Mexico, in the Department of Basic Sciences and at the Technological University of Puebla in the Industrial Engineering program. Her research focuses on the methodology for the theoretical understanding of phenomena in the subjects of Differential and Integral Calculus, and Differential Equations.

Marino Viveros Mora , National Technological Institute of Mexico

Marino Viveros Mora received the Master's degree in Materials Science, his basis academic training is Mechanical Engineer. He is currently working in the College of Metal-Mechanical Engineering, at the "Technological Institute of Puebla", México. His research focuses on the study of technological applications for the creation or modification of materials and bioengineering in the design of machine elements.

Gustavo M. Minquiz Xolo , Distinguished Autonomous University of Puebla

Gustavo M. Minquiz received the Master's and Doctorate degree in Mechanical Engineering. Currently, he is Professor-Researcher in the College of Metal-Mechanical Engineering at the "Meritorious Autonomous University of Puebla" and the "Technological Institute of Puebla", México. He is part of the National System of Researchers of México – Level Candidate. His research area focuses on studying the energy saving and efficiency in manufacturing processes, design by CNC manufacturing and computational finite element analysis.

Gonzalo Espinosa Cuatlapantzi , National Technological Institute of Mexico

Gonzalo Espinosa Cuatlapantzi is Engineer and Master ́s degree in Mechanical Engineering. He is currently working in the College of Metal-Mechanical Engineering, at the "Technological Institute of Puebla", México. His research interests include the technological development focused on optoelectronic and microelectromechanical systems applications, ferroelectric and multiferroic materials for application in the development of solid-state electronic devices.

Javier Flores Méndez , Distinguished Autonomous University of Puebla

Javier Flores Méndez is Doctor in Materials Science. He also holds a Master’s degree in sciences in Mechanical Engineering and a second Master’s degree in Materials Science, his basis academic training is Mechanical Engineer. Currently, he is Professor-Researcher in the College of Metal-Mechanical Engineering at the "Meritorious Autonomous University of Puebla" and the "Technological Institute of Puebla", México. He is part of the National System of Researchers of México – Level 2. His research area focuses on studying the acoustic and electromagnetic response in metamaterials, design of machine elements and computational finite element analysis.

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