A 0.11 kg steel block rotates on a steel table (μk = 0.6) while attached to a 2.5 m long massless rod. Compressed air fed through the rod is ejected from a nozzle on the back of the block, exerting a thrust force of 3.5 N. The nozzle is 70° from the radial line. The block starts from rest.
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A 550 g steel block rotates on a steel table (μk = 0.6) while attached to a 1.4 m long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 4.8 N perpendicular to the tube. The maximum tension the tube can withstand without breaking is 50 N. If the block starts from rest, how many revolutions does it make before the tube breaks?
A 400 g steel block rotates on a steel table while attached to a 1.20 m -long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 5.21 N perpendicular to the tube. The maximum tension the tube can withstand without breaking is 40.0 N . Assume the coefficient of kinetic friction between steel block and steel table is 0.60. If the block starts from rest,...
A 600 g steel block rotates on a steel table while attached to a 1.20 m -long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 4.71 N perpendicular to the tube. The maximum tension the tube can withstand without breaking is 50.0 N. Assume the coefficient of kinetic friction between steel block and steel table is 0.60. (Figure 1) Part A If the block starts from...
A 600 g steel block rotates on a steel table while attached to a 1.20 m -long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 5.21 N perpendicular to the tube. The maximum tension the tube can withstand without breaking is 60.0 N. Assume the coefficient of kinetic friction between steel block and steel table is 0.60. (Figure 1)Part A If the block starts from...
A 500 g steel block rotates on a steel table while attached to a 1.20 m -long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 4.91 N perpendicular to the tube. The maximum tension the tube can withstand without breaking is 60.0 N . Assume the coefficient of kinetic friction between steel block and steel table is 0.60. (Figure 1) If the block starts...
A 400 g steel block rotates on a steel table while attached to a 1.20 m -long hollow tube. Compressed air fed through the tube and ejected from a nozzle on the back of the block exerts a thrust force of 5.21 NN perpendicular to the tube. The maximum tension the tube can withstand without breaking is 40.0 N . Assume the coefficient of kinetic friction between steel block and steel table is 0.60.
The bell, which weighs 260 lbs, starts from rest and is hit by a rod (70 lbs) hanging from two ropes. The rod starts from rest at an angle = 45 degrees. Find the angular velocity of the bell and velocity of the rod just after impact. Assume o = 0.6, L1 = 2.5 ft, L2 = 5ft, and the radius of gyration of the bell about its pivot point (A) is 5.4 ft. Hint: be careful with your signs...
These questions concern a space station, consisting of a long thin uniform rod of mass 4.3 x 10^6 kg and length 769 meters, with two identical uniform hollow spheres, each of mass 1.7 x 10^6 kg and radius 218 meters, attached at the ends of the rod, as shown below. Please note that none of the diagrams shown is drawn to scale. A. Suppose that the station starts out at rest (not rotating). What we want is to get it...
1. KINEMATICS: Kickoff During kickoff for the Oakland Raiders, Sebastian Janikowski's powerful left leg launches the ball from the 30-yard line with the initial velocity of 30 m/s. a. Assuming no air resistance, can the ball reach the end of the field, i.e. travel at least 80 yards (73 m), resulting in a touch-back? Please explain (a yes or no answer is not sufficient) b. Assuming Mr. Janikowski chose the best possible angle for the kick, how long is the...
please answer questions 3-9 He HORIZoRtal what velocity would it need in order to make it to the island? 3. Williamsburg Saving Bank Tower was the tallest building in Brooklyn from 1929 till 2009. It stands at 156 m tall. If you dropped a penny (mass 2.58) from the top of this building, and you measure the penny to have a velocity of 20 m/s just before it hits the ground, how much work was done to the penny by...