An inverted pendulum system is shown in Figure 1. It is assumed that the pendulum is...
Consider the inverted pendulum system presented in Fig. 1. The pivot of the pendulum is mounted on a cart, which can move in a horizontal direction. The pendulum can be kept balanced at a specific position by applying a horizontal force to drive the carriage. Assume that the pendulum mass, m, is concentrated ia at the end of the massless rod. The horizontal displacement of the pivot on the cart is x, the rotational angle of the pendulum is θ...
Consider the inverted pendulum system shown below. The inverted pendulum is mounted on top of a motor driven cart. The pendulum and cart have two degrees of freedom in plane together, i.e x and θ. It is desired to keep the pendulum upright in the presence of disturbances, such as unexpected force applied on the cart. The slanted pendulum can be brought back to the vertical position by applying a control force u applied to the cart. Once the pendulum...
Consider the simple pendulum shown in the figure. The ball can be assumed to be a concentrated mass of 10 kg attached to a massless rod of length 1=50 cm. a) Determine the period of oscillation of the simple pendulum b) If 8, = 12º and ., = 0 , find 0(t).
do (b) and (c) only. 2. For the simple pendulum shown in Figure 2, the nonlinear equations of motion are given by θ(t) + 믈 sin θ(t) + m 0(t)-0 Pivot point L, length Massless rod , mass Figure 2. A simple pendulum 3. Consider again the pendulum of Figure 2 of problem 2 when g = 9.8 m/s, 1 = 4.9m, k =0.3, and (a) Determine whether the system is stable by finding the characteristic equation obtained from setting...
Problem 2: Cart Standard Pendulum Model Consider the cart standard pendulum system shown in Figure 1 with parameters given in Table 1 I C.8 I Ig Figure 1: Cart Standard Pendulum Schematic Syb Definition Unit Variablesr osition of the cart angle that the force applied on cart (control) mass of the cart mass ot t 123 lum makes with the vertic Parameters M5 kg utm 0.5 location of the c.g. of the pendulum above the 4 = m moment of...
Problem 6 State space representation of motor - driven cart with inverted pendulum You are given that the cart carrying the inverted pendulum shown in the figure below is driven by an electric motor powering one pair of wheels so that the whole cart, pendulum and all, becomes the load on the motor. z is the cart position, M is its mass, θ is the pendulum angle with respect to the vertical, I its length, and m its mass. The...
a cart moves at a constant acceleration a as shown in the figure below. a pendulum with a mass m is suspended from the cart. calculate the angle that the pendulum cable makes with the vertical. ennls ur questions in your textbook. cart moves at a constant acceleration a as shown in the figure below. A per mass m is suspended from the cart. Calculate the angle θ that the pendulum ith the vertical. Explain clearly why the cable swings...
Question 2 The pendulum shown in Figure 2 consists of a concentrated mass m attached to a rod whose mass is small compared to m. The rod's length is L. The equation of motion for this pendulum is Suppose that L 1 m and g 9.81 m/s2. Use MATLAB to solve this equation using symbolic and numerical techniques for, θ(t) for two cases: , θ(0)-0.5 rad and, θ(0)-0.8 rad. In both cases 0(0) 0. Figure 2- A pendulum [3 marks]...
Problem 3 (70 pts): Consider the mechanical system in Figure , the so-called "cart pendulum" system. The cart has a moving mass M, and is connected to a linear motor via a flexible coupling with stiffness K and damping B. An inverted pendulum of length1, negligible inertia and mass m is attached to the cart via a rotary actuator. If the pendulum damping coefficient is b, the linear actuator force is F and the rotary actuator torque is t 1)...