Composite materials have emerged as a transformative solution in modern engineering, offering unmatched strength-to-weight ratios, adaptability, and durability for various applications. However, their multiplexity and sensitivity to certain failure modes require advanced design and Structural Health Monitoring (SHM) tools. This thesis explores the comprehensive evaluation of software tools used in composite design and SHM, aiming to address the growing demand for management of composite structures throughout its lifecycle. The research adopts a systematic approach, combining literature reviews and empirical surveys to assess the performance, functionality, and cost-effectiveness of leading design and SHM tools. A Weighted Scoring Model (WSM) is developed to quantitatively evaluate these tools across diverse criteria, including accuracy, computational efficiency, ease of use, and integration with other systems. The study bridges between theoretical advancements in composite technologies and their practical implementation, offering insights into tool applicability across industries such as aerospace, automotive, marine, and renewable energy. These include core conclusions regarding broad divergences in tools’ performance, as well as guidance on how best to apply them to suit various sectors. This research also outlines the areas of improvement for better integration of tools and further improvement of SHM practices. Overall, this thesis responds to the questions related to the current issues as well as the direction of future development of composite design and monitoring, so that these materials can satisfy the emerging requirements for engineering sustainable and innovative applications.

Composite materials have emerged as a transformative solution in modern engineering, offering unmatched strength-to-weight ratios, adaptability, and durability for various applications. However, their multiplexity and sensitivity to certain failure modes require advanced design and Structural Health Monitoring (SHM) tools. This thesis explores the comprehensive evaluation of software tools used in composite design and SHM, aiming to address the growing demand for management of composite structures throughout its lifecycle. The research adopts a systematic approach, combining literature reviews and empirical surveys to assess the performance, functionality, and cost-effectiveness of leading design and SHM tools. A Weighted Scoring Model (WSM) is developed to quantitatively evaluate these tools across diverse criteria, including accuracy, computational efficiency, ease of use, and integration with other systems. The study bridges between theoretical advancements in composite technologies and their practical implementation, offering insights into tool applicability across industries such as aerospace, automotive, marine, and renewable energy. These include core conclusions regarding broad divergences in tools’ performance, as well as guidance on how best to apply them to suit various sectors. This research also outlines the areas of improvement for better integration of tools and further improvement of SHM practices. Overall, this thesis responds to the questions related to the current issues as well as the direction of future development of composite design and monitoring, so that these materials can satisfy the emerging requirements for engineering sustainable and innovative applications.

Market Analysis and Evaluation of Tools for the Design and Structural Health Monitoring of Composite Parts

CURA, ALPEREN
2023/2024

Abstract

Composite materials have emerged as a transformative solution in modern engineering, offering unmatched strength-to-weight ratios, adaptability, and durability for various applications. However, their multiplexity and sensitivity to certain failure modes require advanced design and Structural Health Monitoring (SHM) tools. This thesis explores the comprehensive evaluation of software tools used in composite design and SHM, aiming to address the growing demand for management of composite structures throughout its lifecycle. The research adopts a systematic approach, combining literature reviews and empirical surveys to assess the performance, functionality, and cost-effectiveness of leading design and SHM tools. A Weighted Scoring Model (WSM) is developed to quantitatively evaluate these tools across diverse criteria, including accuracy, computational efficiency, ease of use, and integration with other systems. The study bridges between theoretical advancements in composite technologies and their practical implementation, offering insights into tool applicability across industries such as aerospace, automotive, marine, and renewable energy. These include core conclusions regarding broad divergences in tools’ performance, as well as guidance on how best to apply them to suit various sectors. This research also outlines the areas of improvement for better integration of tools and further improvement of SHM practices. Overall, this thesis responds to the questions related to the current issues as well as the direction of future development of composite design and monitoring, so that these materials can satisfy the emerging requirements for engineering sustainable and innovative applications.
2023
Market Analysis and Evaluation of Tools for the Design and Structural Health Monitoring of Composite Parts
Composite materials have emerged as a transformative solution in modern engineering, offering unmatched strength-to-weight ratios, adaptability, and durability for various applications. However, their multiplexity and sensitivity to certain failure modes require advanced design and Structural Health Monitoring (SHM) tools. This thesis explores the comprehensive evaluation of software tools used in composite design and SHM, aiming to address the growing demand for management of composite structures throughout its lifecycle. The research adopts a systematic approach, combining literature reviews and empirical surveys to assess the performance, functionality, and cost-effectiveness of leading design and SHM tools. A Weighted Scoring Model (WSM) is developed to quantitatively evaluate these tools across diverse criteria, including accuracy, computational efficiency, ease of use, and integration with other systems. The study bridges between theoretical advancements in composite technologies and their practical implementation, offering insights into tool applicability across industries such as aerospace, automotive, marine, and renewable energy. These include core conclusions regarding broad divergences in tools’ performance, as well as guidance on how best to apply them to suit various sectors. This research also outlines the areas of improvement for better integration of tools and further improvement of SHM practices. Overall, this thesis responds to the questions related to the current issues as well as the direction of future development of composite design and monitoring, so that these materials can satisfy the emerging requirements for engineering sustainable and innovative applications.
Composite Materials
Market Analysis
Software and Plugins
Design Tools
Damage Monitoring
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.12608/80927