Abstract: An optimization wizard substantially automates the task of calculating thermal deflection analysis of a part. The optimization wizard requests a user to provide a mesh model representing the part and provide part definitions, such as the part's stiffness, expansion coefficient, etc. In addition, the wizard requests the user to provide boundary conditions by modifying normality of any elements in the mesh model and by fixing conditions of one or more nodes in all direction or in a one sliding direction. An initial and a final temperature may also be provided by the user. The optimization wizard receives the user inputs and generates an executable file describing the relationships and effects each input has on the part's deflection under the provided thermal conditions. The executable file is provided to a solver to determine the part's thermal deflection under the provided conditions.

Abstract: An optimization wizard substantially automates the task of calculating thermal deflection analysis of a part. The optimization wizard requests a user to provide a mesh model representing the part and provide part definitions, such as the part's stiffness, expansion coefficient, etc. In addition, the wizard requests the user to provide boundary conditions by modifying normality of any elements in the mesh model and by fixing conditions of one or more nodes in all direction or in a one sliding direction. An initial and a final temperature may also be provided by the user. The optimization wizard receives the user inputs and generates an executable file describing the relationships and effects each input has on the part's deflection under the provided thermal conditions. The executable file is provided to a solver to determine the part's thermal deflection under the provided conditions.