Hazard Identification and Failure Analysis in Grinding Process

The grinding process is a material removal technique to shape and refine various materials. By using an abrasive wheel, flat or cylindrical surfaces can be shaped and often used as a finishing process in product making. However, the process has the potential to cause serious harm if handled inappropriately specifically with regards to the rotating abrasive wheel. This work aims to identify and analyse the root causes leading to grinding process failures. It involves a review of relevant literature on accidents and potential hazards. Next, the information was clustered by using an affinity diagram and the category with the highest frequency was selected which is ergonomics. After that, hazard identification and risk assessment were conducted on the ergonomics category to identify the activity with the highest risk. Strengths, weaknesses, opportunities and threats or SWOT analysis was utilized to select the most significant activity to be simulated. The design was created by using SpaceClaim software and the simulation was analysed by using ANSYS software. Through the simulation, it was found that at normal grinding force of 1800 N, the deformation is 0.0045 mm and the equivalent (von Mises) stress is 26.3160 MPa. The findings help to promote a safe working condition and the appropriate use of grinding equipment especially when there is contact with rotating parts.

Authors

Publication Details

Journal
Semarak International Journal of Mechanical Precision Engineering
Published
2024-12-30
DOI
https://doi.org/10.37934/sijmpe.1.1.110
Primary Topic
Advanced machining processes and optimization
Type
article
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article

Hazard Identification and Failure Analysis in Grinding Process

Darius Gnanaraj Solomon, Norliana Mohd Abbas, M. Talib, Nur Adlin Jazlina Zulkefli
Semarak International Journal of Mechanical Precision Engineering
Advanced machining processes and optimization
article

Hazard Identification and Failure Analysis in Grinding Process

Darius Gnanaraj Solomon, Norliana Mohd Abbas, M. Talib, Nur Adlin Jazlina Zulkefli
article en

Abstract

The grinding process is a material removal technique to shape and refine various materials. By using an abrasive wheel, flat or cylindrical surfaces can be shaped and often used as a finishing process in product making. However, the process has the potential to cause serious harm if handled inappropriately specifically with regards to the rotating abrasive wheel. This work aims to identify and analyse the root causes leading to grinding process failures. It involves a review of relevant literature on accidents and potential hazards. Next, the information was clustered by using an affinity diagram and the category with the highest frequency was selected which is ergonomics. After that, hazard identification and risk assessment were conducted on the ergonomics category to identify the activity with the highest risk. Strengths, weaknesses, opportunities and threats or SWOT analysis was utilized to select the most significant activity to be simulated. The design was created by using SpaceClaim software and the simulation was analysed by using ANSYS software. Through the simulation, it was found that at normal grinding force of 1800 N, the deformation is 0.0045 mm and the equivalent (von Mises) stress is 26.3160 MPa. The findings help to promote a safe working condition and the appropriate use of grinding equipment especially when there is contact with rotating parts.

Semarak International Journal of Mechanical Precision EngineeringVol. 1(1)
Openalex Percentile: Top 72%
Advanced machining processes and optimization
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