Advanced Welded Structures for Adaptive Mobile Power Stations: Design and Analysis

Energy storage and its utilization, regardless of location, enable the provision of critical services and machinery operation in remote and isolated areas, such as rural regions, islands, or in war and crisis scenarios. By employing modern energy production and storage systems, it becomes possible to ensure a reliable energy supply in areas with inadequate or damaged electrical infrastructure. During the design of the mobile energy solution, a critical objective is to minimize the overall weight of the structure. For this purpose, the primary construction material is the lightweight yet durable heat-treated and artificially aged aluminum alloy profiles, which form the structural framework for both the station and the solar panel mounting and moving system. Structural integrity is as strong as the weld and base material connecting the profiles. Constructing a renewable energy station from superior lightweight materials offers significant energy and sustainability benefits, such as reduced material usage, fuel efficiency, and carbon emissions. The research findings indicate that optimized welding parameters are important for the structural integrity of the aluminium alloy 6082T6 construction. The case study of a mobile power station demonstrates the practical applications of this approach, where carefully selected welding techniques and parameters ensure that joints achieve mechanical performance comparable to that of the base material. This ensures that both strength and durability requirements are met. The study concludes that tailored welding processes are crucial to minimizing the adverse effects of heat input on the material properties of heat-treated aluminum alloys. Lowering the heat energy input for structural manufacturing is energy saved from manufacturing. Considering these effects, manufacturers can leverage the alloys' mechanical advantages in lightweight constructions, thus expanding their applicability in industries focused on weight reduction and structural integrity. These findings provide valuable insights into advancing innovative engineering solutions in sectors such as transportation of renewable energy stations, aerospace, and marine. Overall, selecting a proper manufacturing technology, materials and methods results in energy efficiency and allow for innovative structural solutions for welded structures with a complex configuration.

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Publication Details

Journal
CONECT International Scientific Conference of Environmental and Climate Technologies
Published
2025-05-09
DOI
https://doi.org/10.7250/conect.2025.046
Primary Topic
Structural Integrity and Reliability Analysis
Type
article
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article

Advanced Welded Structures for Adaptive Mobile Power Stations: Design and Analysis

Armand Pellja, Jüri Olt, Olga Liivapuu
CONECT International Scientific Conference of Environmental and Climate Technologies
Structural Integrity and Reliability Analysis
article

Advanced Welded Structures for Adaptive Mobile Power Stations: Design and Analysis

Armand Pellja, Jüri Olt, Olga Liivapuu
article en

Abstract

Energy storage and its utilization, regardless of location, enable the provision of critical services and machinery operation in remote and isolated areas, such as rural regions, islands, or in war and crisis scenarios. By employing modern energy production and storage systems, it becomes possible to ensure a reliable energy supply in areas with inadequate or damaged electrical infrastructure. During the design of the mobile energy solution, a critical objective is to minimize the overall weight of the structure. For this purpose, the primary construction material is the lightweight yet durable heat-treated and artificially aged aluminum alloy profiles, which form the structural framework for both the station and the solar panel mounting and moving system. Structural integrity is as strong as the weld and base material connecting the profiles. Constructing a renewable energy station from superior lightweight materials offers significant energy and sustainability benefits, such as reduced material usage, fuel efficiency, and carbon emissions. The research findings indicate that optimized welding parameters are important for the structural integrity of the aluminium alloy 6082T6 construction. The case study of a mobile power station demonstrates the practical applications of this approach, where carefully selected welding techniques and parameters ensure that joints achieve mechanical performance comparable to that of the base material. This ensures that both strength and durability requirements are met. The study concludes that tailored welding processes are crucial to minimizing the adverse effects of heat input on the material properties of heat-treated aluminum alloys. Lowering the heat energy input for structural manufacturing is energy saved from manufacturing. Considering these effects, manufacturers can leverage the alloys' mechanical advantages in lightweight constructions, thus expanding their applicability in industries focused on weight reduction and structural integrity. These findings provide valuable insights into advancing innovative engineering solutions in sectors such as transportation of renewable energy stations, aerospace, and marine. Overall, selecting a proper manufacturing technology, materials and methods results in energy efficiency and allow for innovative structural solutions for welded structures with a complex configuration.

CONECT International Scientific Conference of Environmental and Climate Technologies
Estonian University of Life Sciences (EE)
Openalex Percentile: Top 90%
Structural Integrity and Reliability Analysis
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