Special Issue "Design & simulation in Additive Manufacturing"

Submission Deadline: 31 March 2020 (closed)
Guest Editors
Prof. Yongqiang Yang, South China University of Technology, China
Prof. Shoufeng Yang, KU Leuven, Belgium.
Prof. Li Yang, University of Louisville, USA.
Prof. Hao Wang, National University of Singapore, Singapore
Prof. Di Wang, South China University of Technology, China
Prof. Yingjun Wang, South China University of Technology, China


Additive Manufacturing (AM) is a process of joining materials to make objects from 3D model data, usually layer upon layer. There are barriers and challenges bordering the development of AM. First, there are many complex multi-physics phenomena during most AM processes, such as molten pool dynamic problem and spatter problem. Second, the comprehensive interaction effect among factors like materials, the support of component, heat transfer and operation parameters, result in manufacturing defects. Third, the freeform design based on AM usually is applied in multi-phase or strict conditions that are difficult to measure or analyze. The newly CAD design methods and numerical simulation, as well as other computational approaches are key to solve these problems and push the development of AM.

With the rapid growth of researches in additive manufacturing, we initiate this special issue to highlight the recent developments with simulation and computational approaches in AM. This special issue seeks original manuscripts to investigate the theory, design, optimization, simulation and process of AM. Papers which deal with multi-physics problems, as well as those which deal with the interfaces of mechanics, chemistry, and biology, are particularly encouraged. Various length scales (quantum, nano, micro, meso, and macro), and various time scales (femtoseconds to hours) are of interest. Both experimental and modeling submissions are encouraged.
Potential topics included but are not limited to: 
(1) Design, modeling, simulation and analysis based on AM.
(2) Simulation of microstructure stability and evolution during or after the AM process.
(3) Simulation of multi-physics problems in AM, such as molten pool dynamic problem, spatter problem, ejection and injection problems.
(4) AM process enhancements and numerical simulation, such as thermal deformation, crack. 
(5) Microstructure and property relationship of the AM components.
(6) Biomedical, energy and other novel applications of AM.
(7) Multi-materials, multi-technology(hybrid) processes and machines enhancements with simulation analysis.
(8) Other related topics…

Additive Manufacturing; Computational Physics; Numerical Simulation; Computational Fluid Dynamics; Mechanical Property; Topology Optimization.