Mechanical Joining by Material Flow

Mechanical Joining by Material Flow provides sought-after experimental information on process design, process modeling, and joint characterization techniques for students, researchers, and engineering professionals who want to learn about advanced joining systems for lightweight materials. The first two chapters are dedicated to mechanical joining by plastic deformation, including clinching and self-piercing riveting. These processes have attracted much attention in recent years...
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Mechanical Joining by Material Flow provides sought-after experimental information on process design, process modeling, and joint characterization techniques for students, researchers, and engineering professionals who want to learn about advanced joining systems for lightweight materials.
The first two chapters are dedicated to mechanical joining by plastic deformation, including clinching and self-piercing riveting. These processes have attracted much attention in recent years as they do not require fusion, allow for metallurgical bonding, and have both high productivity and low energy consumption. The third chapter covers friction-based processes, such as friction stir welding to form a mechanical joint. Though these processes are mainly used to establish metallurgical bonding, their unique characteristics and the material flow they generate has led to an increased use of these techniques for joining difficult-to-weld materials. The fourth chapter introduces other innovative technologies developed based on material flow to meet existing industry needs to join materials with different structural properties, in different scales or shapes.
To furnish readers with a more usefully comprehensive coverage, the team of experts behind the book has included methodological principles as well as discussions on advantages, drawbacks, and future directions of each technique, alongside application examples and case studies.

* Collates in a single source the latest developments of joining techniques by material flow.
* Enables successful design and modeling of mechanical joining processes by material flow as well as performance evaluation of the resulting structures.
* Includes real-world, industrial cases of joining processes' implementation.