Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms

Baseball is a popular and very lucrative bat-and-ball sport that uses a wooden bat to score runs. We hypothesize that new design features for baseball bats will emerge from their shape optimization using parametric modeling and genetic algorithms. We converge the location of two points on bats made...

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Bibliographic Details
Main Authors: Mohammad Sadegh Mazloomi, Philip D. Evans
Format: Article
Language:English
Published: MDPI AG 2021-08-01
Series:AI
Subjects:
ash
Online Access:https://www.mdpi.com/2673-2688/2/3/24
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spelling doaj-246d30e4bbcd400aaa8d539fa7233dfa2021-09-25T23:35:04ZengMDPI AGAI2673-26882021-08-0122438139310.3390/ai2030024Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic AlgorithmsMohammad Sadegh Mazloomi0Philip D. Evans1Centre for Advanced Wood Processing, Department of Wood Science, University of British Columbia, Vancouver, BC V6T 1Z4, CanadaCentre for Advanced Wood Processing, Department of Wood Science, University of British Columbia, Vancouver, BC V6T 1Z4, CanadaBaseball is a popular and very lucrative bat-and-ball sport that uses a wooden bat to score runs. We hypothesize that new design features for baseball bats will emerge from their shape optimization using parametric modeling and genetic algorithms. We converge the location of two points on bats made from maple (<i>Acer</i> sp.) and ash (<i>Fraxinus</i> sp.) wood that are associated with increased velocity of a ball rebounding off a bat: vibrational nodal points and the center of percussion (COP). Our modeling and optimization approach was able to reduce the distance between the nodal points and COP from 166.0 mm to 52.1 mm. This change was similar in both wood species and resulted from changes to the geometry of the bat, specifically shifting of the mass of the bat toward the center of the barrel and removing mass from the very end of the barrel. We conclude that the combination of parametric finite element modeling and optimization using genetic algorithms is a powerful tool for exploring virtual designs for baseball bats that are based on performance criteria and suggest that our designs could be realized in practice using subtractive manufacturing technology.https://www.mdpi.com/2673-2688/2/3/24baseball batwoodmapleashshape optimizationfinite element modeling
collection DOAJ
language English
format Article
sources DOAJ
author Mohammad Sadegh Mazloomi
Philip D. Evans
spellingShingle Mohammad Sadegh Mazloomi
Philip D. Evans
Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
AI
baseball bat
wood
maple
ash
shape optimization
finite element modeling
author_facet Mohammad Sadegh Mazloomi
Philip D. Evans
author_sort Mohammad Sadegh Mazloomi
title Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
title_short Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
title_full Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
title_fullStr Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
title_full_unstemmed Shape Optimization of a Wooden Baseball Bat Using Parametric Modeling and Genetic Algorithms
title_sort shape optimization of a wooden baseball bat using parametric modeling and genetic algorithms
publisher MDPI AG
series AI
issn 2673-2688
publishDate 2021-08-01
description Baseball is a popular and very lucrative bat-and-ball sport that uses a wooden bat to score runs. We hypothesize that new design features for baseball bats will emerge from their shape optimization using parametric modeling and genetic algorithms. We converge the location of two points on bats made from maple (<i>Acer</i> sp.) and ash (<i>Fraxinus</i> sp.) wood that are associated with increased velocity of a ball rebounding off a bat: vibrational nodal points and the center of percussion (COP). Our modeling and optimization approach was able to reduce the distance between the nodal points and COP from 166.0 mm to 52.1 mm. This change was similar in both wood species and resulted from changes to the geometry of the bat, specifically shifting of the mass of the bat toward the center of the barrel and removing mass from the very end of the barrel. We conclude that the combination of parametric finite element modeling and optimization using genetic algorithms is a powerful tool for exploring virtual designs for baseball bats that are based on performance criteria and suggest that our designs could be realized in practice using subtractive manufacturing technology.
topic baseball bat
wood
maple
ash
shape optimization
finite element modeling
url https://www.mdpi.com/2673-2688/2/3/24
work_keys_str_mv AT mohammadsadeghmazloomi shapeoptimizationofawoodenbaseballbatusingparametricmodelingandgeneticalgorithms
AT philipdevans shapeoptimizationofawoodenbaseballbatusingparametricmodelingandgeneticalgorithms
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