Chapter 5: Q17E (page 210)
Find the effective spring constant of the parallel-spring system shown in Figure 5.1.5when both springs have the spring constant. Give a physical interpretation of this result.
Chapter 5: Q17E (page 210)
Find the effective spring constant of the parallel-spring system shown in Figure 5.1.5when both springs have the spring constant. Give a physical interpretation of this result.
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Get started for freeUse a CAS to approximate the eigenvalues and of the boundary-value problem:
Give the corresponding approximate eigenfunctions , , and
A mass weighing stretches a springand another spring . The two springs are then attached in parallel to a common rigid support in the manner shown in Figure. Determine the effective spring constant of the double-spring system. Find the equation of motion if the mass is initially released from the equilibrium position with a downward velocity of.
Spring Pendulum The rotational form of Newton’s secondlaw of motion is:The time rate of change of angular momentum about a point isequal to the moment of the resultant force (torque).In the absence of damping or other external forces, an analogueof (14) in Section 5.3 for the pendulum shown in Figure 5.3.3is then
(a) When m and l are constant show that (1) reduces to (6) ofSection 5.3.
(b) Now suppose the rod in Figure 5.3.3 is replaced with aspring of negligible mass. When a mass m is attached toits free end the spring hangs in the vertical equilibriumposition shown in Figure 5.R.4 and has length l0. When the spring pendulum is set in motion we assume that themotion takes place in a vertical plane and the spring is stiffenough not to bend. For t . 0 the length of the spring isthen lstd 5 l0 1 xstd, whereis the displacement from theequilibrium position. Find the differential equation for thedisplacement angledefined by (1).
For purposes of this problem ignore the list of Legendre polynomials given on page 271 and the graphs given in Figure 6.4.6. Use Rodrigues’ formula (36) to generate the Legendre polynomials. Use a CAS tocarry out the differentiations and simplifications.
The period of simple harmonic motion of mass weighing 8 pounds attached to a spring whose constant is 6.25 lb/ft is _________ seconds
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