In the age of rapid development of technology, the use of robotic systems is wide throughout the spectrum of modern life and the automation achieved through the use of robotic systems, yields large and faster production at relatively lower costs. However, robots often behave inconsistently during testing, given the complexity of the systems and the large variability of the environment. Robotic simulations provide the solution to this problem, as they provide a low-cost, easily accessible virtual robot development environment. They are used to quickly evaluate the design of a robot, simulate virtual sensors, provide a reduced model for predictable model controllers, and an architecture for real-world control of robots, and so on. Robotic simulations take place in special software, robotic simulators. A robotics simulator is a simulator, used to create an application for a physical robot without depending on the actual machine, thus saving cost and time. In some cases, these applications can be transferred to the physical robot (or rebuilt) without modification. One of the most popular applications for robotic simulators is the 3D modeling and rendering of a robot and its environment. This type of robotics software has a simulator, which is a virtual robot, which is capable of mimicking the motion of a real robot in a real situation. Some robotic simulators even employ physics engines for a more realistic robotic motion output. There is a large number of robotics simulators, each serving, either different or same purposes. However, while robotics simulators offer a wealth of benefits, the need to produce high quality applications and software has become more pressing than ever. Increasing productivity, reducing errors (debugging), auditing, verifying and maintaining software play a crucial role in the quality of the final product. A solution to this problem derives from automation software engineering. (continue in full text)