The horizontal force can be calculated using the formula Fhorizontal = Fcos(θ), where F is the given force (20N) and θ is the angle of inclination (30 degrees). Plugging in the values, we get Fhorizontal = 20N x cos(30) ≈ 17.3N.
The force needed to keep a 20N stone from falling would need to be 20N or greater in the opposite direction to counteract the force of gravity pulling the stone downwards. This force would need to be applied vertically upwards to effectively balance the gravitational force acting on the stone.
The work done on the TV set is calculated using the formula Work = Force x Distance x cos(theta), where theta is the angle between the force and the direction of motion. Since the force and direction of motion are in the same direction, the angle is 0 degrees and cos(0) = 1. Therefore, the work done on the TV set is 20N x 2m x 1 = 40 Joules.
The net force is the difference between the two forces. In this case, the net force is 20N (left force) - 10N (right force) = 10N to the left.
The net force produced is 10N, which is the difference between the two forces (30N - 20N). The direction of the net force would be in the direction of the larger force (30N).
The force needed to move the object can be calculated using the formula: Force = Work / Distance. Substitute the given values: Force = 160J / 8m = 20N. Therefore, the force needed to move the object was 20 Newtons.
To maintain equilibrium, the clockwise moment created by the 10N force must be balanced by an equal anticlockwise moment. Therefore, you should apply the 20N force at a distance of 5m on the opposite side of the pivot point in the horizontal direction. This will create an equal and opposite moment, maintaining equilibrium.
The force of friction is equal and opposite to the applied force in this scenario, so the force of friction on the object would also be 20N. This allows the object to remain in a state of equilibrium and not accelerate.
The force needed to keep a 20N stone from falling would need to be 20N or greater in the opposite direction to counteract the force of gravity pulling the stone downwards. This force would need to be applied vertically upwards to effectively balance the gravitational force acting on the stone.
The work done on the TV set is calculated using the formula Work = Force x Distance x cos(theta), where theta is the angle between the force and the direction of motion. Since the force and direction of motion are in the same direction, the angle is 0 degrees and cos(0) = 1. Therefore, the work done on the TV set is 20N x 2m x 1 = 40 Joules.
The net force is the difference between the two forces. In this case, the net force is 20N (left force) - 10N (right force) = 10N to the left.
The net force produced is 10N, which is the difference between the two forces (30N - 20N). The direction of the net force would be in the direction of the larger force (30N).
Assume we can ignore friction when answering this question.
10
Work = (force) x (distance) = (20n) x (2m) = 40 newton-meters = 40 joules.
The force needed to move the object can be calculated using the formula: Force = Work / Distance. Substitute the given values: Force = 160J / 8m = 20N. Therefore, the force needed to move the object was 20 Newtons.
The change in momentum can be calculated using the formula: change in momentum = force x time. In this case, the change in momentum would be equal to 20N x 4s = 80Ns.
The work done by Amy is given by the formula Work = Force x Distance. Thus, the work done by Amy can be calculated as 20N x 10m = 200 Joules.