Q3-(25 pts) A small bead of mass m can move on a fixed horizontal wire without...
A bead of mass M is able to move without friction along a stationary horizontal rod (directed along the x axis). In addition, a second body of mass m is attached to the first bead and suspended below it via a massless rod of length a. This second mass and rod form a pendulum that is able to swing in the xy-plane (where y is the vertical axis). (a) Obtain the Lagrangian for the system of two masses. (b) Assuming...
Q3-(25 pts) A pulley of mass Mand radius R can rotate around its center of mass freely. Take the moment of inertia of the pulley as 1o. A string with negligible mass is wrapped around the pulley. One end of the string holds a block with mass m and the other end is attached to a spring with a force constant k. Assume no friction at any surface and string is not slipping on pulley. a) When the system is...
Q3-(25 pts) A block of mass m is attached to an ideal spring with rest (equilibrium) length L and spring constant k on the x axis. m other end of the spring is fixed to a wall Initially, the spring is compressed by an amount L/2 and another block of mass 2m is placed in front of the first block (they are not attached). The system is released at t 0 from rest. Ignore friction and the sizes of the...
withinitial Q3-(25 pts) A block of mass m is attached to an ideal spring with rest (equilibrium) length L and spring constant k on the x axis. The other end of the spring is fixed to a wall. Initially, the spring is compressed by an amount L/2 and another block of mass 2m is placed in front of the first block (they are not attached). The system is released at t 0 from rest. Ignore friction and the sizes of...
Problem 3 Consider a bead, which is free to move around the frictionless wire hoop, which is spinning at a fixed rate about its vertical axis. Derive equations of motion of the bead working in a frame rotating with the bead and compare it with Lagrangian equations for the generalized coordinate 0 derived in an inertial reference frame (the last part of this problem is an example from the textbook) 20 points Problem 3 Consider a bead, which is free...
I need to rescale (4) from the first page to the equation on the second page. 2.[60pts.] A bead of mass m is constrained to slide along a straight rigid horizontal wire. A spring with natural length Lo and spring constant k is attached to the bead and to a support point a distance h from the wire. See Figure 1. Let z(t) denote the position of the bead on the wire at time t. (Note that x is measured...
Can you please solve and explain your work? The correct answer is 7.35 m/s. A block with mass 0.500 kg is attached to a horizontal spring and moves in simple harmonic motion on a horizontal frictionless surface. The spring has a force constant 400N/m. The amplitude of the motion is 0.300 m. What is the speed of the block during its oscillations when it is displaced 0.150 m from its equilibrium position? (this was part 2 of a question, in...
(6) O Y 25 cm FIGURE 4 FIGURE 4 shows a bead executing a simple harmonic motion with a period of 1.8 s, along a straight line between points, X and Y which are 25 cm apart. Point O is at midpoint between X and (i) Write an equation for the displacement of the bead. (ii) Calculate the magnitude of acceleration of the bead point P. (b) A 25 kg block connected to one end of a string is displaced...
A single bead of mass m can slide with negligible friction on a stiff wire that has been bent into a circular loop of radius R = 0.155m. The circle is always in a vertical plane and rotates steadily about its vertical diameter with a period of T = 0.420s. The position of the bead is described by the angle (theta) that the radial line, from the center of the loop to the bead, makes with the vertical. Hint: The...
A horizontal mass-spring system consists of a 2 kg mass moving on a frictionless surface attached to a spring. The other end of the spring is attached to a wall. The mass is pulled and released. The resultant simple harmonic motion has a period of 5 s and it is observed that the maximum velocity of the mass is 0.3 m/s. a) Calculate the spring constant of the spring. (b) Calculate the amplitude of the motion. Sometime later, when the...