This paper presents an alternate form for the dynamic modelling of a mechanical system that simulates in real life a gantry crane type, using Euler's classical mechanics and Lagrange formalism, which allows find the equations of motion that our model describe. Moreover, it has a basic model design system using the SolidWorks software, based on the material and dimensions of the model provides some physical variables necessary for modelling. In order to verify the theoretical results obtained, a contrast was made between solutions obtained by simulation in SimMechanics-Matlab and Euler-Lagrange equations system, has been solved through Matlab libraries for solving equation's systems of the type and order obtained. The force is determined, but not as exerted by the spring, as this will be the control variable. The objective to bring the mass of the pendulum from one point to another with a specified distance without the oscillation from it, so that, the answer is overdamped. This article includes an analysis of PID control in which the equations of motion of Euler-Lagrange are rewritten in the state space, once there, they were implemented in Simulink to get the natural response of the system to a step input in F and then draw the desired trajectories.
翻译:本文提供了一种替代形式,用于模拟一个机械系统,用Euler的古典机械学和Lagrange形式学,在现实生活中模拟木鹤型的机械系统进行动态建模,以便找到我们模型描述的运动方程式。此外,它有一个使用SolidWorks软件的基本模型设计系统,该软件以模型的材料和尺寸为基础,提供了模型所需的一些物理变量。为了核实获得的理论结果,对比了在SimMechanics-Matlab和Euler-Lagrange等式系统中模拟模拟获得的解决方案,这些解决方案是通过Matlab图书馆解决的,以解决方程式的种类和顺序系统。力量是确定出来的,但不像弹簧所施加的一样,因为这是控制变量。目标是将笔形质量从一个点移到另一个点,不与模型振动,因此答案被过度标注。这篇文章包括了对PID控制的分析,其中对Euler-Lagrange的动作方程式进行了重新写成,一旦在空间的自然连接中,它们就会在空间的阶流中重新写入一个步骤。