Problem 2 A spring of negligible mass has force constant k = 2500 N/m.
a) How far must the spring be compressed for an amount 5.0 J of potential energy to be stored in it?
b) You place the spring vertically with one end on the floor. You then drop a book of mass 2.0 kg onto it from a height of 0.800 m above the top of the spring. Find the maximum distance the spring will be compressed.
Problem 2 A spring of negligible mass has force constant k = 2500 N/m. a) How...
A spring of negligible mass has force constant k = 1500 N/m. How far must the spring be compressed for an amount 3.40 J of potential energy to be stored in it? You place the spring vertically with one end on the floor. You then drop a book of mass 1.30 kg onto it from a height of 0.700 m above the top of the spring. Find the maximum distance the spring will be compressed.
A spring of negligible mass has a force constant of k=1600 N m. You place the spring vertically with one end on the floor. You then drop a 1.20 kg book onto it from a height of 0.80 m above the spring. Find the maximum distance the spring will be compressed. Caution: This is tricky, think about it carefully. The steps are: 1. Draw a picture. 2. Identify the system. 3. FBDs 4. Newton’s Second Law 5. Isolated or not?...
A spring with force constant equal to 120N/m is standing vertically. A mass equal to 0.300kg is dropped onto the spring from a height of 2.0m above the uncompressed end of the spring. How far is the spring compressed when the mass and end of the spring come to rest? (I think you need to use Energy of conservation formula)
The spring of a spring gun has force constant k = 450 N/m and negligible mass. The spring is compressed 6.40 cm and a ball with mass 0.0270 kg is placed in the horizontal barrel against the compressed spring. The spring is then released, and the ball is propelled out the barrel of the gun. The barrel is 6.40 cm long, so the ball leaves the barrel at the same point that it loses contact with the spring. The gun...
A massless spring of a spring gun has a force constant k=800 N/m. A ball of mass 0.5 kg is resting on top of the spring. The ball compresses the spring by d as shown in the right figure. When the gun is fired vertically, the ball reached a maximum height of 5 m from the top of the spring as it returns to its natural length. Calculate how much the spring was initially compressed (d). (a) 12 cm; (b)...
The spring of a spring gun has force constant k = 400 N/m and negligible mass. The spring is compressed 6.00 cm and a ball with mass 0.0300 kg is placed in the horizontal barrel against the compressed spring. The spring is then released, and the ball is propelled out the barrel of the gun. The barrel is 6.00 cmlong, so the ball leaves the barrel at the same point that it loses contact with the spring. The gun is...
The massless spring of a spring gun has a force constant k = 0.04 N/cm. When the gun is aimed vertically, a 19 g projectile is shot to a height of 5.0 m above the end of the expanded spring. (See below.) How much was the spring compressed initially? (Find d, in meters.)
A pogo stick has a spring with a force constant of 2.50 × 104 N/m , which can be compressed 12.4 cm. To what maximum height, in meters above the compressed position of the spring, can a child jump with the stick using only the maximum elastic potential energy in the spring, if the child and stick have a combined mass of 36 kg?
A pogo stick has a spring with a force constant of 2.50 × 104 N/m , which can be compressed 12 cm. To what maximum height, in meters above the compressed position of the spring, can a child jump with the stick using only the maximum elastic potential energy in the spring, if the child and stick have a combined mass of 35 kg?
please help with this problem!
SPRING CONSTANT, known as "k", IS 18 N/m
Situation: A 0.80-meter spring is set on top of a table. The tabletop is 1.0 meters in length. The table is pushed up against a wall and one end of the spring is attached to the wall. A woodblock of mass 0.1kg is placed at the other end of the free spring. The woodblock is pushed against the spring causing the spring to compress. When held in...