Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum

Significant efforts have been made in the automotive industry to reduce vehicle weight in order to improve vehicle fuel economy and reduce greenhouse gas emissions. New innovations in structural lightweight alloys and manufacturing techniques have allowed automakers to replace conventional steel wit...

Full description

Bibliographic Details
Main Authors: Kohar Christopher P., Connolly Daniel S., Liusko Timofei, Inal Kaan
Format: Article
Language:English
Published: EDP Sciences 2020-01-01
Series:MATEC Web of Conferences
Online Access:https://www.matec-conferences.org/articles/matecconf/pdf/2020/22/matecconf_icaa172020_01006.pdf
id doaj-14f1ffe358694d268e0195ae3f534b18
record_format Article
spelling doaj-14f1ffe358694d268e0195ae3f534b182021-08-05T13:52:22ZengEDP SciencesMATEC Web of Conferences2261-236X2020-01-013260100610.1051/matecconf/202032601006matecconf_icaa172020_01006Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with AluminumKohar Christopher P.0Connolly Daniel S.1Liusko Timofei2Inal KaanDepartment of Mechanical and Mechatronics Engineering, University of WaterlooDepartment of Mechanical and Mechatronics Engineering, University of WaterlooDepartment of Systems Design Engineering, University of WaterlooSignificant efforts have been made in the automotive industry to reduce vehicle weight in order to improve vehicle fuel economy and reduce greenhouse gas emissions. New innovations in structural lightweight alloys and manufacturing techniques have allowed automakers to replace conventional steel with lighter aluminum structures. However, automakers have an enormous number of material and gauge thickness combinations to consider in the development process of the next generation production vehicle. Furthermore, the design combination of these materials and structures must not compromise the integrity of the vehicle during a vehicle collision. With the proliferation of inexpensive computational resources, automakers can now explore the effect of material selection on the crashworthiness of next-generation vehicles using computer simulations. While information from these simulations can be manually extracted, the vast amount of data lends itself to artificial intelligence (AI) techniques that can extract knowledge faster and provide more useful interpretations that can be convenient for designers and engineers. This work presents a framework for using artificial intelligence to aid the vehicle design cycle in crashworthiness using aluminum. Virtual experiments of a frontal crash condition of a pick-up truck are performed using finite element analysis to generate the data for this method. Different commercially available aluminum alloys and gauge thicknesses are varied in the virtual experiments. An advanced type of recurrent neural network is used to predict the time-series response of the occupant crash-pulse response, which is a key crashworthiness metric that is used for evaluating safety. This work highlights how automotive designs and engineers can leverage this framework to accelerate the development cycle of the next-generation lightweight vehicle.https://www.matec-conferences.org/articles/matecconf/pdf/2020/22/matecconf_icaa172020_01006.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Kohar Christopher P.
Connolly Daniel S.
Liusko Timofei
Inal Kaan
spellingShingle Kohar Christopher P.
Connolly Daniel S.
Liusko Timofei
Inal Kaan
Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
MATEC Web of Conferences
author_facet Kohar Christopher P.
Connolly Daniel S.
Liusko Timofei
Inal Kaan
author_sort Kohar Christopher P.
title Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
title_short Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
title_full Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
title_fullStr Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
title_full_unstemmed Using Artificial Intelligence to Aid Vehicle Lightweighting in Crashworthiness with Aluminum
title_sort using artificial intelligence to aid vehicle lightweighting in crashworthiness with aluminum
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2020-01-01
description Significant efforts have been made in the automotive industry to reduce vehicle weight in order to improve vehicle fuel economy and reduce greenhouse gas emissions. New innovations in structural lightweight alloys and manufacturing techniques have allowed automakers to replace conventional steel with lighter aluminum structures. However, automakers have an enormous number of material and gauge thickness combinations to consider in the development process of the next generation production vehicle. Furthermore, the design combination of these materials and structures must not compromise the integrity of the vehicle during a vehicle collision. With the proliferation of inexpensive computational resources, automakers can now explore the effect of material selection on the crashworthiness of next-generation vehicles using computer simulations. While information from these simulations can be manually extracted, the vast amount of data lends itself to artificial intelligence (AI) techniques that can extract knowledge faster and provide more useful interpretations that can be convenient for designers and engineers. This work presents a framework for using artificial intelligence to aid the vehicle design cycle in crashworthiness using aluminum. Virtual experiments of a frontal crash condition of a pick-up truck are performed using finite element analysis to generate the data for this method. Different commercially available aluminum alloys and gauge thicknesses are varied in the virtual experiments. An advanced type of recurrent neural network is used to predict the time-series response of the occupant crash-pulse response, which is a key crashworthiness metric that is used for evaluating safety. This work highlights how automotive designs and engineers can leverage this framework to accelerate the development cycle of the next-generation lightweight vehicle.
url https://www.matec-conferences.org/articles/matecconf/pdf/2020/22/matecconf_icaa172020_01006.pdf
work_keys_str_mv AT koharchristopherp usingartificialintelligencetoaidvehiclelightweightingincrashworthinesswithaluminum
AT connollydaniels usingartificialintelligencetoaidvehiclelightweightingincrashworthinesswithaluminum
AT liuskotimofei usingartificialintelligencetoaidvehiclelightweightingincrashworthinesswithaluminum
AT inalkaan usingartificialintelligencetoaidvehiclelightweightingincrashworthinesswithaluminum
_version_ 1721220463858810880