Metalworking Processes Theoretical and Experimental Study
Materialtyp:
ArtikelUtgivningsinformation: MDPI - Multidisciplinary Digital Publishing Institute 2025Beskrivning: 1 electronic resource (288 p.)Innehållstyp: - text
- computer
- online resource
- 9783725833696
- 9783725833702
- Technology, Engineering, Agriculture, Industrial processes
- Technology: general issues
- History of engineering and technology
- 3D printing parameters
- Al7075
- AlMgSi(Cu) alloys
- AlZnMg alloys
- Al–Mg–Zn–Cu
- Cerium
- EBSD
- FEM
- Forge
- GOS
- M50 bearing ring
- Manganese
- allowance allocation
- alloying elements
- bending and forming
- bimetallic composite pipe
- closurefoundry voids
- cold rolling
- cold upsetting steel
- die deflection
- die wear
- digital image correlation
- dynamic deformation
- extrudates dimensional accuracy
- extrusion
- extrusion welding
- flow behavior
- forging process
- form grinding
- forming defects
- friction
- homogenization
- hot torsion test
- mechanical properties
- mechanical property
- metal flow
- metallographic analysis
- metallographic tests
- microstructure
- multiscale model
- numerical modeling
- physical modelling
- porthole dies
- prior martensite
- retained austenite
- state of the art
- static tensile test
- steel
- steel for cold upsetting
- straightening
- super austenitic stainless steel
- surface morphology
- thermovision investigation
- titanium alloy
- transformation behavior
- tribology
- tungsten carbide
- variable strain state
- wire drawing
- wire rod rolling
- zirconium ally
Open Access Unrestricted online access star
The modelling of structural and mechanical properties in metal thermomechanical treatment processes and technical alloys is a crucial research area, and it is currently at the center of interest of scientific centers dealing with materials engineering and plastic working processes. Performing direct tests under industrial conditions for the development of such processes is too costly and usually does not allow for the optimization of process parameters. Therefore, it is justified to develop methods of optimizing technological processes, ensuring the receipt of a product with the required mechanical properties based on modern methods of numerical and physical modelling. By using modern computer programs based on the finite element method, it is possible to carry out numerical simulations of technological processes. Computer simulation also enables the design and optimization of industrial processes without long-term and costly experiments in the technological line. Mathematical modelling also enables the determination of the parameters necessary for physical modelling by using metallurgical process simulators. However, numerical modelling alone does not allow for the accurate prediction of the mechanical properties and microstructure of the tested material. The use of the physical simulation methods is a supplement to mathematical modelling, which allows for solving complex problems encountered in the development of new production processes with high efficiency.
Creative Commons Licence cc by cc https://creativecommons.org/licenses/by/4.0/
eng
Freely available e-book