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FEA simulation of contact and wear between non-metallic materials for accelerated new product development

conference contribution
posted on 2009-01-01, 00:00 authored by H Lin, H Y Lin, Lingxue KongLingxue Kong
The conventional approach ie laboratory life testing to examine the reliability of products takes long time and involves tremendous cost as samples are tested till failures. The accelerated life test (ALT) has recently been used as an alternative method. Although ALT reduces the cost of reliability testing through applying more severe environmental conditions than the normal ones, it is no longer sufficient as it does not describe the process of products’ failure explicitly and it is still highly dependent on physical testing. Consequently, novel practices need to be developed for better understanding of the products’ reliability. A novel Finite Element Analysis (FEA) model incorporating mathematical wear equations is developed in the current work and applied to polymer materials. Wear rate, a key parameter, is calculated by using a combinatorial formula that combines a conventional linear equation with a recently published exponential equation. The local wear is firstly calculated and then integrated over the sliding distance. The FEA simulation works in a loop and performs a series of simulation with updated surface geometries. The simulation is in good agreement with the physical testing result.

History

Event

Advances in Materials and Processing Technologies Conference (2009 : Kuala Lumpur, Malaysia)

Publisher

AMPT Committees

Location

Kuala Lumpur, Malaysia

Place of publication

Kuala Lumpur, Malaysia

Start date

2009-10-26

End date

2009-10-29

Language

eng

Publication classification

E2 Full written paper - non-refereed / Abstract reviewed

Title of proceedings

AMPT 2009 : Forging a better future

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