Design Optimization and Analysis of Trenching Excavator Bucket
DOI:
https://doi.org/10.18311/jmmf/2023/45733Keywords:
Design Optimization, Equivalent Elastic Strain, Static Structural Analysis, Trenching Excavator Bucket, Total DeformationAbstract
This research centers on the design optimization and analysis of a trenching excavator bucket using ANSYS engineering simulation software. The study explores modifications, such as decreasing bucket height by 35mm and increasing side plate width to 12mm compared to the stock configuration1. The analysis primarily focuses on evaluating Equivalent Elastic Strain and Total Deformation using ANSYS to ensure improved digging performance and structural integrity. Excavator buckets are vital components in earth-moving operations, and their efficiency directly affects productivity and operational costs. By leveraging ANSY advanced capabilities, this study aims to propose an optimized bucket design that enhances trenching efficiency and durability. The findings provide valuable insights for manufacturers and engineers seeking to elevate excavator bucket technology and improve construction and mining operations through enhanced performance and cost-effectiveness.
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