Well
the wavelength is the distance between succesive crests, or troughs on a transverse wave is the distance between consecutive compressions or rarefactions of a longitudinal wave.
the frequency can is the time between consecutive crest on a transverse wave and the time between consecutive rarefactions or compressions on a longitudinal wave.
the amplitude on a transverse wave is the distance between a crest and the zero value of the wave, not till the trough. on a longitudinal wave the amplitidue is measured by the strength of the rarefactions or compressions as compared to the natural state of the propagation medium. so for a longidudinal wave travelling throught the air; if the compression pressure is 4 bar the amplitude would be greater than if the compression pressure was 3 bar, because the air's natural pressure is 1 bar. in reality things like sound waves have much less compression pressure.
A wave must be transverse or longitudinal or both.
Earthquakes generate both transverse and longitudinal waves.
its a transverse wave
Radio wave is not a longitudinal wave it is a transverse wave
Light is transverse in nature.
Transverse :)
Its a transverse wave.
The vibration of the Longitudinal wave is parallel to the wave direction and the vibration is perpendicular to the direction in the transverse wave.
A longitudinal wave is a "side-on" waveform. A transverse Wave is a "end-on" waveform.
A sound wave is indeed a longitudinal wave as opposed to a transverse wave
transverse waves.
Condensation is the increase in density in a longitudinal wave, thus it signifies a high pressure area, which is higher energy, which is equated to the crest of a transverse wave.