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| ISBN： | 9787040292800 |
| 作者： | 暂无作者 |
| 出版社： | 高等教育出版社 |
| 出版时间： | 暂无出版时间 |
| 页数： | 暂无页数 |
| 价格： | 87.40元 |
| 纸张： | 暂无纸张 |
| 装帧： | 暂无装帧 |
| 开本： | 暂无开本 |
| 语言： | 未知 |
| 丛书： | 暂无丛书 |
| 豆瓣评分： | 暂无豆瓣评分 |
Layered and Gradient Material Fracture Mechanics: Boundary Element Method and Applications
Background
In the field of materials science, understanding how different materials behave under stress is crucial for their safe and efficient use. Layered and gradient materials, which have varying properties across their structure, present unique challenges in this area. The Boundary Element Method (BEM) has emerged as a powerful tool to analyze these materials, especially when it comes to predicting how they will fracture.
Process
Researchers at leading universities and institutes have been using BEM to study the mechanics of fractures in layered and gradient materials. This method simplifies complex problems by focusing on the boundaries of the material rather than the entire volume. By doing so, it reduces computational time and increases accuracy.
The process involves creating a digital model of the material and applying various loads to simulate real-world conditions. The results help engineers understand where and how cracks might form and propagate. This information is vital for designing safer structures and devices.
Impact
The application of BEM in studying layered and gradient materials has several potential impacts. For one, it can lead to the development of stronger and more durable materials for use in industries like aerospace, automotive, and construction. It also aids in the design of components that can withstand extreme conditions, such as high temperatures or pressures.
Moreover, the insights gained from these studies can help in the early detection and prevention of structural failures, potentially saving lives and reducing costs associated with maintenance and repairs.
Overall, the research into the fracture mechanics of layered and gradient materials using BEM is advancing our ability to create and maintain safer, more reliable materials and structures.
