Stretching a rubber band is like moving a brick from the floor to the table top. To get it there, you have to apply a force (to overcome gravity) for a certain distance (the height of the table). The gravitation potential energy is equal to the force times the distance.
The rubber band is a little different, as the force increases the more you stretch it - but it is storing potential energy just the same. It's called elastic potential energy.
That's a kind of potential energy.
That's a kind of potential energy.
That's a kind of potential energy.
That's a kind of potential energy.
That's a kind of potential energy.
Potential Energy
Elastic potential energy can be found in a spring, in a rubber band, and in a pogo stick
a spring possesses elastic potential energy when compressed or stretched.
yes it has potential energy
Springs are great for absorbing energy. The spring force is negative when the spring is stretched and positive when it is compressed or pushed.
The potential energy of a spring is defined by this equation: U=.5kx2 U= potential energy (in joules) k= the spring constant x= the displacement of the spring from equilibrium. (the amount that the spring is stretched or compressed) This equation tells us that as a spring is compressed by a distance x, the potential energy increases proportionately to x2
A stretched rubber band, a compressed spring, an elevated object, chemical bonds.
Elastic potential energy can be found in a spring, in a rubber band, and in a pogo stick
a spring possesses elastic potential energy when compressed or stretched.
yes it has potential energy
Springs are great for absorbing energy. The spring force is negative when the spring is stretched and positive when it is compressed or pushed.
Springs are great for absorbing energy. The spring force is negative when the spring is stretched and positive when it is compressed or pushed.
The potential energy of a spring is defined by this equation: U=.5kx2 U= potential energy (in joules) k= the spring constant x= the displacement of the spring from equilibrium. (the amount that the spring is stretched or compressed) This equation tells us that as a spring is compressed by a distance x, the potential energy increases proportionately to x2
Elastic energy, for example, a stretched spring.
A coiled spring, a raised weight, a stretched rubber band and a yoyo before it.
You can treat the rubber band as a spring. Ve=1/2*k*x2Where Ve is the elastic potential energy stored in the rubber band, k is the spring constant for the rubber band (can be calculated experimentally), and x is the distance the rubber band is stretched.
The energy stored in a compressed spring is called potential energy.
The rubber band particles are compressed together from the top and bottom and outwards on both sides, this creates a lot of pressure and the particles spring back once you let go.