Design and 3D-Modeling of a Solar-Powered Hydraulic Scissor Lift Table for University’s Cafeterias: Advancing Sustainability and Efficiency in Food Service Operations
DOI:
https://doi.org/10.20372/star.V13.i4.06Keywords:
Solar Energy, 3D –Modelling, Virtual Prototype, Hydraulic PumpAbstract
In this era of increased sustainability and efficiency, there is an increased need for solutions to reduce the environmental impact while increasing transportation in food service operations in higher education. Traditional manual food service techniques are labour-intensive and time-consuming and raise the risk of worker fatigue, minimising food service at peak hours. Disruptions caused by interruptions or personnel turnover contribute to greater operating costs through increased additional expenses and wasted resources. This study aims to overcome these concerns by creating a solar-powered hydraulic scissor lift table designed specifically for the university's cafeteria. The methodology involves conceptualising design ideas, analysing requirements, selecting components, creating 3D models, and evaluating performance using finite element simulation for structural integrity and load-bearing capacity. The results of the study confirm the platform's structural integrity with a safe load capacity of 9.81 kN, below its buckling limit. The hydraulic cylinder design is also safe, exerting a force of 8.04 kN below its buckling load of 304.34 kN. Material stress is well below the yield strength of the material (AISI 1020) and minimal deformation under loading conditions. Therefore, the study demonstrates the platform's robust structural integrity and capability of safely handling loads below its yield strength.
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Copyright (c) 2024 Journal of Science, Technology and Arts Research
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.
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Accepted 2024-11-29
Published 2024-12-09
