A cube of mass m1 = 5.1 kg is sitting on top of another cube of the same size and mass m2 = 1.4 kg while they are both in free-fall. Ignoring any air resistance, what is the magnitude of the normal force with which the bottom cube is acting on the top cube?
since both are having a free fall so net weight felt by any of the cube will be zero
hence no normal force by any cubes on any one
hence normal force=0 N
Attempt 2 - A clarinetist, setting out for a performance, grabs his 3.250 kg clarinet case (including the clarinet) from the top of the piano and carries it through the air with an upward force of 23.91 N. Find the case's vertical acceleration. Indicate an upward acceleration as positive and a downward one as negative. vertical acceleration: 7.36 m/s? Attempt A cube of mass m, 5,5 kg is sitting on top of another cube of the same size and mass...
2. A cube and a wedge with masses m1-5.00 kg and m2 10.0 kg are arranged as shown to the right. 9 There is no friction between the masses and there is no friction between the wedge and the floor. The masses are released from rest and the wedge moves to the left while the cube moves to the right. The masses only move up/down and left/right. They do not move into or out of the page. After release, the...
5. Two crates, with masses m1 = 83 kg and m2 = 210 kg, are sitting side-by-side and at rest on a horizontal surface (they are touching). A 750-N force is exerted on m1 so that the boxes both move in the same direction. If the coefficient of kinetic friction between the boxes and the table is 0.12, find: (a) the acceleration of the boxes and (b) the contact force the boxes exert on one other. 6. A raindrop falls...
A box of mass m1 = 1 kg rests on top of a second box of mass m2
= 5kg. The coefficient of kinetic friction between each other and
between the second box and the floor is
. A rope is attached to the bottom mass. Find the force necessary
to pull the boxes at a constant speed of 2 m/s.
0.2
A mass m1 = 5.7 kg rests on a frictionless table and connected by a massless string to another mass m2 = 5.8 kg. A force of magnitude F = 44 N pulls m1 to the left a distance d = 0.89 m. How much work is done by the force F on the two block system? How much work is done by the normal force on m1 and m2? What is the final speed of the two blocks? How...
An equilateral triangle 12.0 m on a side has a m1 = 10.00 kg mass at one corner, a m2 = 65.00 kg mass at another corner, and a m3 = 125.00 kg mass at the third corner. Find the magnitude and direction of the net force acting on the 10.00 kg mass. a) Newtons b) Degrees counterclockwise from the positive x-axis.
A small box of mass m1 is sitting on a board of mass
m2 and length L. The board rests on a frictionless
horizontal surface. The coefficient of static friction between the
board and the box is μs. The coefficient of kinetic
friction between the board and the box is, as usual, less than
μs.Throughout the problem, use g for the magnitude of the acceleration
due to gravity. In the hints, use Ff for the magnitude
of the friction force...
A mass m1 = 5.8 kg rests on a frictionless table and connected by a massless string to another mass m2 = 4.5 kg. A force of magnitude F = 30 N pulls m1 to the left a distance d = 0.86 m. What is the NET work done on m1?
An equilateral triangle 90.0 m on a side has a m1 = 35.00 kg mass at one corner, a m2 = 95.00 kg mass at another corner, and a m3 = 145.00 kg mass at the third corner. Find the magnitude and direction of the net force acting on the 35.00 kg mass. 6.012e-11 N _____ ° counterclockwise from the positive x-axis Take positive x-axis to the right. I got part a right, need help with part b (counterclockwise part)
Incorrect Question 8 0/5 pts A mass m1 = 77-kg block sitting on a frictionless table is connected to a hanging mass m2 = 32-kg block through a string and a pulley as shown below. If the pulley is massless, what is the magnitude of the acceleration, in m/s2, of both blocks? Take the acceleration due to gravity as 9.80 m/s2. Use the equations given below to find a. Please round your answer to two decimal places. m Equations: T...