A uniform solid sphere of density 1 2 is floating in water. (Compare Chapter 8, Problem 5.37. ) It is pushed down just under water and released. Write the differential equation of motion (neglecting friction) and solve it to obtain the period in terms of K 5 − 1 / 2 . Show that this period is approximately 1.16 times the period for small oscillations.
A uniform solid sphere of density 1 2 is floating in water. (Compare Chapter 8, Problem 5.37. ) It is pushed down just under water and released. Write the differential equation of motion (neglecting friction) and solve it to obtain the period in terms of K 5 − 1 / 2 . Show that this period is approximately 1.16 times the period for small oscillations.
A uniform solid sphere of density
1
2
is floating in water. (Compare Chapter 8, Problem 5.37. ) It is pushed down just under water and released. Write the differential equation of motion (neglecting friction) and solve it to obtain the period in terms of
K
5
−
1
/
2
.
Show that this period is approximately 1.16 times the period for small oscillations.
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