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ARCH (Aluminium Reduced Cost Hybrid Parts)

Reference Number
InnUK/104418/01
Title
ARCH (Aluminium Reduced Cost Hybrid Parts)
Status
Completed
Energy Categories
Energy Efficiency(Transport)
Not Energy Related
Research Types
Applied Research and Development
Science and Technology Fields
PHYSICAL SCIENCES AND MATHEMATICS (Metallurgy and Materials)
ENGINEERING AND TECHNOLOGY (Mechanical, Aeronautical and Manufacturing Engineering)
UKERC Cross Cutting Characterisation
Not Cross-cutting
Principal Investigator
Project Contact
Autotech Engineering R & D UK Limited
Award Type
Collaborative R&D
Funding Source
Innovate UK
Start Date
01 November 2018
End Date
30 April 2021
Duration
30 months
Total Grant Value
£602,904
Industrial Sectors
Region
North East
Programme
Competition Call: 1712_EE_OPEN_R4_36M - December 2017 Sector Competition: Open - 25 to 36 Months. Activity December 2017 Sector Competition: Open - 13 to 24 Months
Investigators
Principal Investigator
Project Contact, Autotech Engineering R & D UK Limited
Other Investigator
Project Contact, BRUNEL UNIVERSITY LONDON
Web Site
Objectives
Abstract
ARCH -- **A**luminium **R**educed **C**ost **H**ybrid Parts The continued drive within the automotive sector to support fuel efficiency regulations with value-added lightweighting has put UK manufacturers under pressure from globalisation to minimise manufacturing costs. This can be met, in part, by the integration of higher specific strength materials but the accepted paradigms of material selection and manufacturing processes need to be challenged. The ARCH project seeks to develop a novel fabricated-hybrid-chassis structure to replace the state-of-the-art steel chassis structures currently used extensively for the automobile industry. Driven by the concept of right materials in the right places, a mixture of aluminium extruded and cast node parts are incorporated into the design of the fabricated-chassis-hybrid structure to deliver weight savings of over 30, accurate predictive performance analysis using CAE tools is key to eliminating potential failure without the need for multiple testing loops and correlation. As the industry is moving away from producing prototype parts prior to serial production, the predictive design capabilities will be developed within the project, enabling the formulation of reliable digital design tools to accurately predict the performance, durability and failure of fabricated-chassis-hybrid alloy structures in chassis applications Another critical part of the project is the development of a reliable, robust and cost effective manufacturing process since rapid, repeatable and productive processes are key to accelerating the use of high strength fabricated-chassis-hybrid alloy structures for mass production vehicles. A candidate for the technology will be developed in multiple design iterations, then optimised and demonstrated with the production of full-size chassis components and the performance of the demonstrator systems will be evaluated against relevant benchmarks. Physical test data will enable the validation of the newly formulated predictive design tools.
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Added to Database
19/05/20