13.153 An old 3000-lb cannon fires an 18-lb shell with an initial velocity of 1500 ft/s at an angle of 30° (you may assume this is the absolute velocity of the shell). The cannon rests on a horizontal surface and is free to move horizontally. Assuming that the barrel of the cannon is rigidly attached to the frame (no recoil mechanism) and that the shell leaves the barrel 5 ms after firing, determine (a) the recoil velocity of the cannon, (b) the resultant of the vertical impulsive forces exerted by the ground on the cannon.
13.153 An old 3000-lb cannon fires an 18-lb shell with an initial velocity of 1500 ft/s at an angle of 30° (you may assume this is the absolute velocity of the shell). The cannon rests on a horizontal surface and is free to move horizontally. Assuming that the barrel of the cannon is rigidly attached to the frame (no recoil mechanism) and that the shell leaves the barrel 5 ms after firing, determine (a) the recoil velocity of the cannon, (b) the resultant of the vertical impulsive forces exerted by the ground on the cannon.
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
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Math: 13.153
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Transcribed Image Text:1:23 AM
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Fig. P13.152
13.153 An old 3000-lb cannon fires an 18-lb shell with an initial velocity
of 1500 ft/s at an angle of 30° (you may assume this is the absolute
velocity of the shell). The cannon rests on a horizontal surface and is
free to move horizontally. Assuming that the barrel of the cannon is
rigidly attached to the frame (no recoil mechanism) and that the shell
leaves the barrel 5 ms after firing, determine (a) the recoil velocity of
the cannon, (b) the resultant of the vertical impulsive forces exerted
by the ground on the cannon.
13.154 In order to test the resistance of a chain to impact, the chain is sus-
pended from a 240-lb rigid beam supported by two columns. A rod
attached to the last link is then hit by a 60-lb block dropped from a
5-ft height. Determine the initial impulse exerted on the chain and
the energy absorbed by the chain, assuming that the block does not
rebound from the rod and that the columns supp
(a) perfectly rigid, (b) equivalent to two perfectly
ar
915/1505
5 ft
Fig. P13.154
B.
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