The design of high stress-to-mass ratio components and mechanical systems is a crucial challenge across various engineering fields, particularly in aerospace, automotive, and high-performance machinery. The concept of stress-to-mass ratio essentially refers to the ability of a material or system to withstand mechanical stress (forces per unit area) while keeping its overall mass as low as possible. High-performance applications, such as spacecraft, high-speed vehicles, and specialized tools, demand components that can endure extreme forces without adding excessive weight. This demand pushes the boundaries of material science, manufacturing techniques, and design principles. In this paper, we explore the critical aspects of designing such components and systems, focusing on material selection, structural design, optimization methods, and real-world applications. Moreover, multidisciplinarity plays a fundamental role in enhancing performance by reducing the mass and inertia of machine components. It is important for the future that the innovation process involves expertise from multiple disciplines.
(2025). The Design of High Stress-to-Mass Ratio Components and Mechanical Systems [journal article - articolo]. In MATERIAL SCIENCE RESEARCH INDIA. Retrieved from https://hdl.handle.net/10446/307707
The Design of High Stress-to-Mass Ratio Components and Mechanical Systems
Baragetti, Sergio
2025-01-01
Abstract
The design of high stress-to-mass ratio components and mechanical systems is a crucial challenge across various engineering fields, particularly in aerospace, automotive, and high-performance machinery. The concept of stress-to-mass ratio essentially refers to the ability of a material or system to withstand mechanical stress (forces per unit area) while keeping its overall mass as low as possible. High-performance applications, such as spacecraft, high-speed vehicles, and specialized tools, demand components that can endure extreme forces without adding excessive weight. This demand pushes the boundaries of material science, manufacturing techniques, and design principles. In this paper, we explore the critical aspects of designing such components and systems, focusing on material selection, structural design, optimization methods, and real-world applications. Moreover, multidisciplinarity plays a fundamental role in enhancing performance by reducing the mass and inertia of machine components. It is important for the future that the innovation process involves expertise from multiple disciplines.| File | Dimensione del file | Formato | |
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