That would depend on many factors. Length, thickness, density, resonance....too many factors to take a stab at an answer.
The spring ligament supports the medial longitudinal arch of the foot, providing stability and helping to maintain proper foot alignment during weight-bearing activities. It connects the calcaneus to the navicular bone in the foot.
The lowest point of a spring tide occurs during the neap tide phase, which is when the difference between high and low tide is the smallest. This typically happens about a week after the spring tide.
nothin they get happy and start wearing summer clothes
When you release the lid of a jack-in-the-box, the stored potential energy in the spring is converted into kinetic energy as the spring unwinds and the box pops open. This kinetic energy is what causes the toy to pop up and the jack to spring out.
Rocks on the side of a spring will move if there is a earthquake. When a earthquake happens it shakes everything.
They move back and forth - in this case, along the direction in which the wave advanced.
Longitudinal wave
The type of wave that passes through the spring in the frog toy is a longitudinal wave. This is because the particles of the spring vibrate parallel to the direction of wave propagation, causing compressions and rarefactions to travel through the material.
To create a longitudinal wave in a stretched spring, you would need to apply a force at one end of the spring so that it compresses and then release it so that it expands. This compression and expansion will propagate as a longitudinal wave through the spring.
When a longitudinal wave is sent along the spring, the particles of the ribbon will oscillate back and forth in the direction of the wave propagation. This means that the ribbon will compress and expand alternatively as the wave passes through it, giving the appearance of movement along the spring in the direction of the wave. The particles themselves do not actually move in this direction; they simply oscillate about their equilibrium positions.
When electric current passes through a spring, the spring can become magnetized. The magnetic field generated by the current induces a magnetic field in the spring, causing it to act like a magnet. This magnetic property can be harnessed in various applications, such as in electromagnets or speakers.
sprung spring sprang sprung
Slinkys or springs is one of the best ways to conceptualize a wave. Three types of waves are: transverse - If you hold both ends of the spring in place and then shake one end in a direction perpendicular to the springs length, you will see a transverse wave. It looks like a lump sticking out of it and moving down the spring. longitudinal - If you hold both ends of the spring in place and then push one end towards the other end forward and backwards, you will see a longitudinal wave. It looks like a dense spot in the spring/slinky that moves towards the other end. surface - For this type of wave, it is easiest to picture a ripple in a pond. Every particle moves both transverse and longitudinal. Every particle moves in a circular path.
Transverse waves have particle movement perpendicular to the wave direction, while longitudinal waves have particle movement parallel to the wave direction. In transverse waves, vibrations occur perpendicular to the direction of energy transfer, while in longitudinal waves, vibrations occur parallel to the direction of energy transfer.
rarefactions
No, in a longitudinal wave, the energy is transferred through the compression and rarefaction of the medium particles, rather than being absorbed by the spring. The spring may help transmit the wave, but it does not absorb the energy of the wave.
Imagine a long spring or slinky (the toy). Now if you give a jerk to the spring from one side, while keeping the other end fixed, you will be able to see a compressions travelling from your end to the fixed end of the spring. Congrats, you just saw a longitudinal wave!