m,L
Using sum of forces, sum of moments, and constraint equations, determine the 12 equations 12 unknowns. Solve the system of equations for the 12 unknowns including the EOMs. 1.
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There is a double-pendulum system, each with mass m and length L, attached to a cart of mass M. T...
A simple pendulum (mass M and length L) is suspended from a cart of mass m...
A simple pendulum (mass M and length L) is suspended from a cart of mass m that moves freely along a horizontal track shown at right. You might find it helpful to introduce the dimensionless parameters η-m/M and wo- /g/L. a What are the normal frequencies of small oscillations of the system (0 <1)? b Find and describe the corresponding normal modes of the system. c The cart/pendulum systern is held at rest in the configuration x-0 and θ K...
(25 points) anchored to two facing walls as shown in the figure. Inside the cart, a pendulum of mass m (not included in the mass M of the cart) and length l is hung from the ceiling, z is the dis...
(25 points) anchored to two facing walls as shown in the figure. Inside the cart, a pendulum of mass m (not included in the mass M of the cart) and length l is hung from the ceiling, z is the displacement of the cart from its equilibrium position, and ф is the angle the pendulum makes with the vertical. 4. Coupled oscillators. A cart of mass M when empty is attached to two springs (a) Write down the kinetic and...
w 3. Double-pendulum system (point mass) (see Textbook Example 2.5 if needed) Write the equations of...
w 3. Double-pendulum system (point mass) (see Textbook Example 2.5 if needed) Write the equations of motion (EOMs) for the No friction No friction double-pendulum system shown in Fig. 2. (c) Figure 1. Mass-Spring-Damper Systems Assume that the displacements of the pendulums are small enough to ensure that the spring is always horizontal (but DO NOT make small angle approximations when writing the EOMS). The pendulum rods are taken to be massless, of length L, and the springs are attached...
4. Consider a double pendulum with identical length, L and mass, m constrained to move in...
4. Consider a double pendulum with identical length, L and mass, m constrained to move in the x-y plane. Using the Cartesian coordinates, x and y write down the kinetic and potential energies of the system in terms of, and θ2. Find the Lagrangian and two corresponding equations for the system. Assume the angles 0, and 02 are both very small so that sin θ θ and cos θ 1 and state the approximate equations
Prob. 7.3: A simple pendulum (mass M and length L) is suspended from a cart (mass...
Prob. 7.3: A simple pendulum (mass M and length L) is suspended from a cart (mass m) that canoscillate on the end of a spring of spring constant k, as shown in the figure at right. (a) Write the Lagrangian in terms of the generalized coordinates x and ?, where x is the extension of the spring from its equilibrium length and ? is the angle of the pendulum from the vertical. Find the two Lagrange equations. (b) Simplify the...
Problem 3 (70 pts): Consider the mechanical system in Figure , the so-called "cart pendulum" system....
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)...
A pendulum is attached to the cart that has a mass of 3m and that is...
A pendulum is attached to the cart that has a mass of 3m and that is free to move along the horizontal direction. From the rest condition, when the lumped mass m of the pendulum makes a 0 angle with the vertical, the pendulum is released. 3m L m Compared to the case in which the cart is fixed (it cannot move), when 0=0°, the speed of the lumped mass at the tip of the pendulum would be smaller. (Vcartmoves...
Problem 2: Cart Standard Pendulum Model Consider the cart standard pendulum system shown in Figur...
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...
1) Consider a pendulum of constant length L to which a bob of mass m is attached. The Q6. pendulum moves only in a two-dimensional plane (see figure below). The polar frame of reference attached to t...
1) Consider a pendulum of constant length L to which a bob of mass m is attached. The Q6. pendulum moves only in a two-dimensional plane (see figure below). The polar frame of reference attached to the bob is defined by er,ce where er is the unit vector orientecd away from the origin and e completes the direct orthonormal basis. The pendulum makes an angle 0(t) between the radial direction and the vertical direction e(t) The position vector beinge ind...
Consider a simple pendulum of length / and mass m placed in a rail-road cart that...
Consider a simple pendulum of length / and mass m placed in a rail-road cart that has constant acceleration a in the positive x-direction. (Hint: This means that suspension point of the pendulum moves with acceleration a, this needs to be accounted for when considering motion of the pendulum) a) (11 pts.) Find the Lagrangian function of this pendulum. b) (11 pts.) Obtain Lagrange's equations of motion for this pendulum. c) (11 pts.) Find the Hamiltonian function of this pendulum....
A simple pendulum (mass M and length L) is suspended from a cart of mass m that moves freely along a horizontal track shown at right. You might find it helpful to introduce the dimensionless parameters η-m/M and wo- /g/L. a What are the normal frequencies of small oscillations of the system (0 <1)? b Find and describe the corresponding normal modes of the system. c The cart/pendulum systern is held at rest in the configuration x-0 and θ K...
(25 points) anchored to two facing walls as shown in the figure. Inside the cart, a pendulum of mass m (not included in the mass M of the cart) and length l is hung from the ceiling, z is the displacement of the cart from its equilibrium position, and ф is the angle the pendulum makes with the vertical. 4. Coupled oscillators. A cart of mass M when empty is attached to two springs (a) Write down the kinetic and...
w 3. Double-pendulum system (point mass) (see Textbook Example 2.5 if needed) Write the equations of motion (EOMs) for the No friction No friction double-pendulum system shown in Fig. 2. (c) Figure 1. Mass-Spring-Damper Systems Assume that the displacements of the pendulums are small enough to ensure that the spring is always horizontal (but DO NOT make small angle approximations when writing the EOMS). The pendulum rods are taken to be massless, of length L, and the springs are attached...
4. Consider a double pendulum with identical length, L and mass, m constrained to move in the x-y plane. Using the Cartesian coordinates, x and y write down the kinetic and potential energies of the system in terms of, and θ2. Find the Lagrangian and two corresponding equations for the system. Assume the angles 0, and 02 are both very small so that sin θ θ and cos θ 1 and state the approximate equations
Prob. 7.3: A simple pendulum (mass M and length L) is suspended from a cart (mass m) that canoscillate on the end of a spring of spring constant k, as shown in the figure at right. (a) Write the Lagrangian in terms of the generalized coordinates x and ?, where x is the extension of the spring from its equilibrium length and ? is the angle of the pendulum from the vertical. Find the two Lagrange equations. (b) Simplify the...
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)...
A pendulum is attached to the cart that has a mass of 3m and that is free to move along the horizontal direction. From the rest condition, when the lumped mass m of the pendulum makes a 0 angle with the vertical, the pendulum is released. 3m L m Compared to the case in which the cart is fixed (it cannot move), when 0=0°, the speed of the lumped mass at the tip of the pendulum would be smaller. (Vcartmoves...
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...
1) Consider a pendulum of constant length L to which a bob of mass m is attached. The Q6. pendulum moves only in a two-dimensional plane (see figure below). The polar frame of reference attached to the bob is defined by er,ce where er is the unit vector orientecd away from the origin and e completes the direct orthonormal basis. The pendulum makes an angle 0(t) between the radial direction and the vertical direction e(t) The position vector beinge ind...
Consider a simple pendulum of length / and mass m placed in a rail-road cart that has constant acceleration a in the positive x-direction. (Hint: This means that suspension point of the pendulum moves with acceleration a, this needs to be accounted for when considering motion of the pendulum) a) (11 pts.) Find the Lagrangian function of this pendulum. b) (11 pts.) Obtain Lagrange's equations of motion for this pendulum. c) (11 pts.) Find the Hamiltonian function of this pendulum....
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