The energy gets absorbed by the string, and will be converted mainly to heat.
When a stretched string is released, the potential energy in the string is converted to kinetic energy, causing the string to vibrate due to the release of stored energy.
When a stretched string is released, the potential energy stored in the string is converted into kinetic energy as the string vibrates. This kinetic energy causes the string to oscillate back and forth until the energy is dissipated as sound waves.
A string under tension has potential energy, which will be liberated as kinetic energy should the string break or be released.
When a stretched string is released, the potential energy stored in the string is converted into kinetic energy as the string vibrates back to its equilibrium position. This kinetic energy causes the string to oscillate and produce sound waves.
When you compress a string, the potential energy stored in the string increases. This potential energy is due to the elastic properties of the material and is stored as strain energy. When the string is released, this energy is converted back into kinetic energy as the string returns to its original shape.
The energy gets absorbed by the string, and will be converted mainly to heat.
When a stretched string is released, the potential energy in the string is converted to kinetic energy, causing the string to vibrate due to the release of stored energy.
When a stretched string is released, the potential energy stored in the string is converted into kinetic energy as the string vibrates. This kinetic energy causes the string to oscillate back and forth until the energy is dissipated as sound waves.
It is converted into heat in the string and the environment.
A string under tension has potential energy, which will be liberated as kinetic energy should the string break or be released.
When a stretched string is released, the potential energy stored in the string is converted into kinetic energy as the string vibrates back to its equilibrium position. This kinetic energy causes the string to oscillate and produce sound waves.
When you compress a string, the potential energy stored in the string increases. This potential energy is due to the elastic properties of the material and is stored as strain energy. When the string is released, this energy is converted back into kinetic energy as the string returns to its original shape.
kinetic energy
kinetic energy
When a stretched string is released, the potential energy is converted into kinetic energy as the string vibrates. The string's vibrations create sound waves, which carry energy away in the form of sound.
The energy is dissipated. That means it is absorbed, and somehow converted to other forms of energy. Typically, much of this dissipated energy gets converted into heat.
Kinetic energy and then to heat.