Sustainable Design Process of Distribution Cabinet
Tabassum, Mehbuba (2024)
2024
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Julkaisun pysyvä osoite on
https://urn.fi/URN:NBN:fi:amk-2024052817023
https://urn.fi/URN:NBN:fi:amk-2024052817023
Tiivistelmä
The sustainable design process in mechanical engineering was the focus of this thesis, particularly the design of distribution cabinets for electrical networks. The aim of the thesis was to incorporate sustainability from the beginning of the design process, from material selection to the end-of-life considerations for the product.
The study began with an exploration of sustainable and concurrent engineering principles, emphasizing the need to integrate sustainability throughout the product development cycle. It then focused on assessing the environmental impacts and durability of stainless steel and aluminium to determine the most suitable material for distribution cabinets. A detailed development lifecycle for the cabinets was analyzed, taking sustainability into account. SolidWorks was utilized to create detailed 3D models and simulations, complemented with precise drawings and calculations. The SolidWorks sustainability tool was used for lifecycle assessments to better understand the environmental implications associated with the choice of material.
SolidWorks sustainability reports showed that Aluminium is the preferable material for the distribution cabinets, primarily due to its lighter environmental footprint and higher recyclability compared to Stainless Steel. This conclusion was supported by comprehensive lifecycle assessments that highlighted Aluminium's advantages in terms of sustainability. In conclusion, the thesis highlights the importance of incorporating sustainable practices into engineering design, not only to meet the present needs but also to ensure that we are acting as re-sponsible stewards of our environmental resources for future generations.
The study began with an exploration of sustainable and concurrent engineering principles, emphasizing the need to integrate sustainability throughout the product development cycle. It then focused on assessing the environmental impacts and durability of stainless steel and aluminium to determine the most suitable material for distribution cabinets. A detailed development lifecycle for the cabinets was analyzed, taking sustainability into account. SolidWorks was utilized to create detailed 3D models and simulations, complemented with precise drawings and calculations. The SolidWorks sustainability tool was used for lifecycle assessments to better understand the environmental implications associated with the choice of material.
SolidWorks sustainability reports showed that Aluminium is the preferable material for the distribution cabinets, primarily due to its lighter environmental footprint and higher recyclability compared to Stainless Steel. This conclusion was supported by comprehensive lifecycle assessments that highlighted Aluminium's advantages in terms of sustainability. In conclusion, the thesis highlights the importance of incorporating sustainable practices into engineering design, not only to meet the present needs but also to ensure that we are acting as re-sponsible stewards of our environmental resources for future generations.