Derive the differential equations model for the cart-spring system shown with and without Coulomb damping.
Derive the differential equations model for the cart-spring system shown with and without Coulomb damping. k2...
3. Consider the spring - mass system shown below, consisting of two masses mi and m2 sus- pended from springs with spring constants ki and k2, respectively. Assume that there is no damping in the system. a) Show that the displacements ai and r2 of the masses from their respective equilibrium positions satisfy the differential equations b) Use the above result to show that the spring-mass system satisfies the following fourth order differential equation and c) Find the general solution...
2. For the following 3-DOF spring-mass system: (a) Derive the equations of motion. (b) Assuming ki-k2-k3-k and mi-m2-m3-m, determine the natural frequencies and mode shapes. rt
On a moving cart, an object of mass m is connected to the cart with
spring and damper. The displacement of the cart and the object is
determined based on the fixed coordinate system of each ground, and
there is no friction between the object and the cart. Set up
equations of motion and guide them into differential equations m=1
[kg], k=2 [N/m], c= 3[N/m/sec]
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Problem 5: For the system shown below, write the differential equations for small motions of the system, in terms of the degrees of freedom (x(t),() Mass of the bar is m, and mass of the block is also m. System is set into motion through suitable initial conditions. Once you find the equations of motion in terms of the respective degrees of freedom, write out the natural frequency and the damping ratio for each sub-system, respectively.
Problem 5: For the...
4. Derive the equations of motion for the shown two degrees system in terms of x and ?. Bonus 12.5 Pts: Derive and solve the characteristic equation for l = 4 m, m = 3 kg, ki-1 N/m, and k2 = 2 N/m. .
Erobiem.1 (2o points): An air cart oscillation is created by damping on this system is known to be negligible and can be an air cart to a single spring The over a smail time period The maximum acceleration of the oscillation is known to be 1.80 m/e" and the cart mass is 0.60 kg angular velocity of the cart is 3.25 rad/s. At time t-os, the position of the cart isx.oso m a) Write the position function for the oscillation...
3. Consider the spring - mass system shown below, consisting of two masses mi and ma sus- pended from springs with spring constants ki and k, respectively. Assume that there is no damping in the system. a) Show that the displacements z1 and 2 of the masses from their respective equilibrium positions satisfy the differential equations b) Use the above resuit to show that the spring-mass system satisfies the following fourth order differential equation. and ) Find the general solution...
consider the system shown where m=50kg, c=200N.s/m, k1=350N.m,
and k2=550N.m. The free end of the spring k2 is excited by
y(t)=0.4sin3t(m) as shown
4. Consider the system shown where m = 50 kg, c = 200 N.s/m, ki = 350 N.m, and k2 = 550 N.m. The free end of the spring ky is excited by y(t) = 0.4 sin 3t (m) as shown (20 points) a) Determine the equation of motion of the system. b) Determine the natural frequency...
This assignment is for my Engr dynamics systems class.
Consider the electromechanical dynamic system shown in Figure 1(a). It consists of a cart of mass m moving without slipping on a linear ground track. The cart is equipped with an armature-controlled DC motor, which is coupled to a rack and pinion mechanism to convert the rotational motion to translation and to create the driving force for the system. Figure 1(b) shows the simplified equivalent electric circuit and the mechanical model...
Problem 2 - A modified mass-spring-damper system: Model the modified mass-spring-damper system shown below. The mass of the handle is negligi- ble (only 1 FBD is necessary). Consider the displacement (t) to be the input to the system and the cart displacement az(t) to be the output. You may assume negligible drag. MwSpring-Damper System M0 Problem 3 Repeat problem 2, but with the following differences: • Assume the mass of the handle m, is not equal to zero. You may...