Chapter 5: 7E (page 196)
7. Find a linearization of the differential equation in Problem 4.
Short Answer
The linearization for the given differential equation can be reached using the Macluarin series of , under the condition that is small.
Chapter 5: 7E (page 196)
7. Find a linearization of the differential equation in Problem 4.
The linearization for the given differential equation can be reached using the Macluarin series of , under the condition that is small.
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Get started for freeIn Problems 35 and 36 determine whether it is possible to find values and (Problem 35) and values of (Problem 36 ) so that the given boundary-value problem has (a) precisely one nontrivial solution, (b) more than one solution, (c) no solution, (d) the trivial solution.
35.
A mass weighingstretches a spring. The subsequent motion takes place in medium that offers a damping force numerically equal to localid="1664048610111" times the instantaneous velocity. If the mass is initially released from the equilibrium position with an upward velocity of , show that the equation of motion is
localid="1664048854781" style="max-width: none; vertical-align: -15px;"
.
Find the eigenvalues and eigenfunctions for the given boundry-value problem. Consider only the case.( hint: read (ii)in the remarks.)
Compare the result obtained in part (b) of Problem 43 with the solution obtained using variation of parameters when the external force is .
A mass weighingpounds stretches a springfoot. The mass is initially released from a pointinches above the equilibrium position with a downward velocity of.
(a) Find the equation of motion.
(b) What are the amplitude and period of motion?
(c) How many complete cycles will the mass have completed at the end ofseconds?
(d) At what time does the mass pass through the equilibrium position heading downward for the second time?
(e) At what times does the mass attain its extreme displacements on either side of the equilibrium position?
(f) What is the position of the mass at?
(g) What is the instantaneous velocity at?
(h) What is the acceleration at?
(i) What is the instantaneous velocity at the times when the mass passes through the equilibrium position?
(j) At what times is the massinches below the equilibrium position?
(k) At what times is the massinches below the equilibrium position heading in the upward direction?
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