A small block with mass 0.0375 kg slides in a vertical circle of radius 0.600 m on the inside of a circular track. During one of the revolutions of the block, when the block is at the bottom of its path, point A, the magnitude of the normal force exerted on the block by the track has magnitude 4.05 N . In this same revolution, when the block reaches the top of its path, point B, the magnitude of the normal force exerted on the block has magnitude 0.690 N . How much work was done on the block by friction during the motion of the block from point A to point B?

A small block with mass 0.0375 kg slides in a vertical circle of radius 0.600 m...
A small block with mass 0.0475 kg slides in a vertical circle of radius 0.0730 m on the inside of a circular track. There is no friction between the track and the block. At the bottom of the block's path, the normal force the track exerts on the block has magnitude 3.70 N. What is the magnitude of the normal force that the track exerts on the block when it is at the top of its path?
A small block with mass 0.0500 kg slides in a vertical circle of
radius 0.0760 m on the inside of a circular track. There is no
friction between the track and the block. At the bottom of the
block's path, the normal force the track exerts on the block has
magnitude 3.70 N
Part A: What is the magnitude of the normal force that the track
exerts on the block when it is at the top of its path?
HW...
a small car with mass 8kg travels on the inside of a circle which is vertical as shown to the right. if the normal force exerted by the track on the car when iit is at the top of the track (point B) is 60 N , what would the normal force be when the car is at point A(the bottom)?
take r ro be 1.0 m
1. A small block of mass 0.5 kg compresses a spring (K 500 N/m) a distance of x 0.50 m. The block is released from rest and travels along a frictionless, horizontal surface until it reaches point A. After point A is moves along the circular path while experiencing an frictional force of magnitude 6.0 N. a) Calculate the speed when it reaches the top of the circular path. (Use work-energy methods to solve...
A block of mass m slides down a frictionless ramp to a
loop of radius R, also frictionless. It's initial height
above the bottom of the loop is ?h = 3R and the
block starts at rest.
What is the magnitude of the normal force that the track of the
loop exerts on the block at position 2? You can assume that the
block is exactly at the horizontal height of the center of the loop
when it reaches position...
A small block of mass 0.150 kg slides in a horizontal circular
trajectory of radius 0.400 m at constant speed along the inside of
a frictionless bowl (cross-section shown). The bowl’s surface makes
an angle of 25.0° with the horizontal.
5. Find the magnitude of the normal force acting on the
block.
6. Find the block’s speed.
please explain
(numbers 5-6) A small block of mass 0.150 kg slides in a horizontal circular trajectory of radius 0.400 m at constant...
e) 24 N (numbers 3-4) A small block of mass m slides along the inner, frictionless surface of a vertical circular track. At point A the magnitude of the block's acceleration is 2g. 19 3. What is the magnitude of the normal force on the block at point B? a) 4mg b) 5mg c) 6mg d) 7mg e) 8mg 8 4. What is the magnitude of the normal force on the block at point C? a) 4mg b) 5mg c)...
A small block of mass m slides along the frictionless loop the loop track shown below. If it starts from rest at point A, what is the speed of the block at point B? (v = squareroot (10 g R)) What is the net force acting on the block at point C? (Don't forget the gravitational force. (F = -mg (8i + j) At what height above the bottom should the block be released so that the normal force exerted...
A small car with mass 0.670 kg travels at constant speed on the inside of a track that is a vertical circle with radius 5.00 m the following figure.If the normal force exerted by the track on the car when it is at the top of the track (point B) is 6.00 N, what is the normal force on the car when it is at the bottom of the track (point A)?
A small car of mass m travels on the inside of a frictionless vertical circular track of radius R. The speed of the car v is big enough to keep it on the track all the time. (a) What is the magnitude of the normal force N on the car at a position that makes an angle θ with the vertical? (b) What is the magnitude of the angular acceleration α of the car at the same position? (c) Assume...