When a spring is stretched, the atoms within the spring rearrange themselves to accommodate the added force. This results in an increase in potential energy stored within the spring due to the stretching. The spring exerts an equal and opposite force in an attempt to return to its natural position, causing it to behave like a restoring force when stretched.
When a spring is stretched beyond its limit, it reaches a point where it can no longer return to its original shape. This is known as the spring's elastic limit. If the spring is stretched beyond this limit, it will permanently deform or even break.
Elastic potential energy is stored in a stretched spring. When the spring is compressed or stretched, it gains potential energy that can be released when the spring returns to its original shape.
When a spring is compressed or stretched, potential energy is stored in the spring. When the spring is released, this potential energy is transformed into kinetic energy as the spring moves. This energy transformation happens because the stored potential energy in the spring is converted into the motion of the spring as it returns to its original shape.
The work done by a spring when it is compressed or stretched is the energy stored in the spring due to the deformation. This energy is potential energy that can be released when the spring returns to its original shape.
The two forces involved in a stretched spring are the restoring force, which acts to bring the spring back to its equilibrium position, and the applied force, which is the external force that stretches the spring.
When a spring is stretched beyond its limit, it reaches a point where it can no longer return to its original shape. This is known as the spring's elastic limit. If the spring is stretched beyond this limit, it will permanently deform or even break.
The amount the spring is stretched is called the displacement.
Elastic potential energy is stored in a stretched spring. When the spring is compressed or stretched, it gains potential energy that can be released when the spring returns to its original shape.
When a spring is compressed or stretched, potential energy is stored in the spring. When the spring is released, this potential energy is transformed into kinetic energy as the spring moves. This energy transformation happens because the stored potential energy in the spring is converted into the motion of the spring as it returns to its original shape.
The amount the spring is stretched is called the displacement.
The work done by a spring when it is compressed or stretched is the energy stored in the spring due to the deformation. This energy is potential energy that can be released when the spring returns to its original shape.
The two forces involved in a stretched spring are the restoring force, which acts to bring the spring back to its equilibrium position, and the applied force, which is the external force that stretches the spring.
The spring displacement equation is given by x F/k, where x is the distance the spring is stretched or compressed from its equilibrium position, F is the force applied to the spring, and k is the spring constant.
The spring has been stretched. When the coils are squeezed together then the spring has been compressed.
The work done by the stretching body is equal to the difference in potential energy stored in the spring before and after it is stretched. This work is done against the restoring force of the spring.
As you stretch a spring, the force it exerts increases in direct proportion to the amount of stretch. This relationship is described by Hooke's Law. If the spring is stretched beyond its elastic limit, it may permanently deform and no longer obey Hooke's Law.
A stretched spring has potential energy stored in it, specifically elastic potential energy. This energy is a result of the deformation of the spring from its equilibrium position. When released, this potential energy is converted into kinetic energy as the spring returns to its original shape.