Development of the Object-Oriented Dynamic Simulation Models Using Visual C++ Freeware
Author(s) -
Alexander I. Kozynchenko,
Sergey A. Kozynchenko
Publication year - 2016
Publication title -
modelling and simulation in engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.264
H-Index - 20
eISSN - 1687-5591
pISSN - 1687-5605
DOI - 10.1155/2016/1756124
Subject(s) - computer science , modelica , flexibility (engineering) , visualization , visual modeling , matlab , interface (matter) , graphical user interface , field (mathematics) , object (grammar) , basis (linear algebra) , software , object oriented programming , dynamical simulation , domain (mathematical analysis) , programming language , artificial intelligence , unified modeling language , operating system , mathematical analysis , statistics , physics , geometry , mathematics , bubble , quantum mechanics , maximum bubble pressure method , pure mathematics
The paper mostly focuses on the methodological and programming aspects of developing a versatile desktop framework to provide the available basis for the high-performance simulation of dynamical models of different kinds and for diverse applications. So the paper gives some basic structure for creating a dynamical simulation model in C++ which is built on the Win32 platform with an interactive multiwindow interface and uses the lightweight Visual C++ Express as a free integrated development environment. The resultant simulation framework could be a more acceptable alternative to other solutions developed on the basis of commercial tools like Borland C++ or Visual C++ Professional, not to mention the domain specific languages and more specialized ready-made software such as Matlab, Simulink, and Modelica. This approach seems to be justified in the case of complex research object-oriented dynamical models having nonstandard structure, relationships, algorithms, and solvers, as it allows developing solutions of high flexibility. The essence of the model framework is shown using a case study of simulation of moving charged particles in the electrostatic field. The simulation model possesses the necessary visualization and control features such as an interactive input, real time graphical and text output, start, stop, and rate control
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