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SULEIMAN M. S. BANI HANI
Faculty of Engineering
SULEIMAN M. S. BANI HANI
Faculty of Engineering
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Welcome to the Hashemite University faculty staff website.
Research Interests
Artificial Intelligence Applying genetic algorithms for numerical integration on complex domains for meshfree methods. Applying fuzzy logic and neural networks for nonlinear control problems. Using genetic algorithms for optimal control problems. Numerical integration in R3: In this thesis we discuss efficient techniques for numerical integration in R1 and R2. The next step is to expand numerical integration for the method of finite spheres to three-dimensions. Three-dimensional numerical integration on an arbitrary domain is the first step in applying the method of finite spheres to more realistic and complex problems. • Application to large deformation and fracture problems: One of the key advantages to the method of finite spheres is the potential to model problems with large deformation and fracture without the need for remeshing. Our next step in this research is to advance the computational technology to handle such problems. The use of the lookup table approach for the total Lagrangian technique is straightforward. However, its use with the updated Lagrangian formulation would require further work. • Application to multiscale problems: Although there is significant research to develop continuum theories for problems with micron and nano scale, most of these theories cannot cover the wide range of material behavior at the different length scales. Multiscale modeling is being widely investigated because of its ability to describe and model material behavior at deferent length scales, and using meshfree methods such as the method of finite spheres offer a great flexibility for adopting and incorporating different models and material behavior. There are two ways the new integration method may be used to advantage. In hierarchical multiscale methods such as the ones based on asymptotic homogenization and structural enrichment-based techniques, highly complex domain integrals arise which may be efficiently computed using this method. In concurrent multiscale methods, where continuum and atomistic methods are coupled in a single simulation scheme, the new integration approach may be used for the continuum for seamless message passing to and from the nonlocal parts of the computational domain. • Application to other meshfree methods: Most meshfree methods use rational nonpolynomial interpolation functions and the integration domains are usually more complex the in the traditional finite element method. Using the new numerical integration method with different meshfree methods will result in a more efficient approximation schemes and will open the opportunity to explore the potential of these methods.
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