The frequency of a wave does not directly affect its amplitude. Amplitude is determined by the energy of the wave, while frequency is the number of complete cycles of the wave that occur in one second. So, a change in frequency would not cause a change in the wave's amplitude.
Increasing the speed of the plunger will increase the frequency of the waves.
The sound pressure amplitude tells about how loud the tone will be and the frequency (cycles per second) of the oscillation tells how high the sound of the tone will be. The amplitude gives the loudness of the tone: http://en.wikipedia.org/wiki/Loudness The frequency gives the pitch of the tone: http://en.wikipedia.org/wiki/Pitch_%28music%29
There are two types of modulations. They are amplitude modulation and frequency modulation. In AM, amplitude of the signal is modified. In FM, frequency is getting modulated. Frequency modulated with carrier waves are transmitted and received by receivers without any distortion.
There isn't any. The amplitude gives no information about the frequency or wavelength, and is completely unrelated to them.
High amplitude makes a sound wave louder. Amplitude is the measure of the maximum displacement of a wave from its equilibrium position. In the case of sound waves, higher amplitude corresponds to louder volume.
Increasing the speed of the plunger will not affect the wavelength of the waves. The wavelength of the waves is determined by the frequency of the source that is creating the waves, not by the speed of the medium through which the waves are traveling.
Actually the amplitude depends on your modulator by which you generated your signal you can pick any amplitude you want but here is the formula for frequency modulated signal: Ac here decide the amplitude of the signal and you can see that it is not related to the frequency component of your signal.
Simple Case:For simple waves, changing the amplitude does not change any other basic wave characteristic, e.g. frequency, wavelength.Amplitude is usually associated with the quantification of how much stuff is waving or how strongly it is waving, e.g. water waves and sound waves. It nearly always then is a measure of the energy of a wave which is usually proportional to the square of the amplitude. For sound and similar waves we say a change of amplitude changes the intensity of the wave.More complex Cases:The basic characteristics of a simple harmonic wave are the amplitude, frequency and wavelength., There are further longitudinal and transverse waves, so the direction of associated with the movement of whatever is oscillating is another characteristic.The amplitude of a wave is the measure of the maximum magnitude of whatever is oscillation. For simple harmonic waves, there is a sinusoidally varying quantity which is the amplitude. When the amplitude changes, it is just that magnitude changing or such simple waves. As stated above, this is usually associated with a change of energy or intensity.For some waves, particularly those which are not simple harmonic waves, change in amplitude can cause other effects. These are called nonlinear effects.A few examples are known from daily life. A ripple on the surface of water does not have the same properties as a giant ocean wave. In the case of water, amplitude does alter wavelength and frequency. The character of a wave changes. The electrical waves traveling through the electrical circuit of an amplifier for a loudspeaker system have properties that are not simply proportional to amplitude of the signal can can produce those loud screeching noises and distortions. People who wear glasses which darken in bright sunlight are experiencing a nonlinear effect. Even the oscillation of a pendulum is nonlinear with the period of the pendulum changing as the amplitude increases.
In a sinusoidal wave amplitude is the height of the crest and frequency is the no. of oscillations per second.Hence,amplitude remains same for any change in frequency.-No relation.
The wavelength and frequency of any wave are inversely proportional. Neither of them is related to the wave's amplitude in any way.
Traveling waves refer to a type of wave motion where the disturbance (such as energy or information) propagates through a medium in a continuous manner. These waves maintain their shape and speed as they move through the medium, without any change in amplitude or frequency. Examples of traveling waves include ocean waves, sound waves, and electromagnetic waves.