Mathematical and Physical Simulation of the Properties of Hot Rolled Products || One-dimensional Modeling of the Flat Rolling Process
โ Scribed by Lenard, J.G.
- Book ID
- 121376621
- Publisher
- Elsevier
- Year
- 1999
- Tongue
- English
- Weight
- 909 KB
- Edition
- 1
- Category
- Article
- ISBN
- 0080427014
No coin nor oath required. For personal study only.
โฆ Synopsis
The objective of this publication is to comprehensively discuss the possibilities of producing steels with pre-determined attributes, demanded by the customer to fit exacting specifications. The information presented in the book has been designed to indicate the reasons for the expenses and to aid in the process of overcoming the difficulties and reducing the costs.
In nine detailed chapters, the authors cover topics including: โข steel as a major contributor to the economic wealth of a country in terms of its capabilities and production โข current concerns of major steel producers โข phenomena contributing to the quality of the product โข information concerning the boundary conditions of the rolling process and initial conditions, put to use by mathematical models โข the solid state incremental approach and flow formulation โข parameters and variables - most of which make use of the exponential nature of phenomena that are activated by thermal energy โข the application of three dimensional analysis to shape rolling โข the evaluation of parameters by a form of inverse analysis to the flat rolling process โข knowledge based modeling, using artificial intelligence, expert systems and neural networks
They conclude that when either mathematical or physical modeling of the rolling process is considered and the aim is to satisfy the demands for customers, it is possible to produce what the customer wants, exactly.
๐ SIMILAR VOLUMES
Predictive capabilities of a one-dimensional model, a rigid-plastic finite element and an elastoplastic finite element approach of the fiat rolling process are compared. It has been found that the rigid-plastic solution gives almost identical rate of deformation, strain and temperature fields as the