Frequency is the number of waves that pass a point per unit of time. Amplittude is the distanc from the crest or trough of the wave to an imaginary line. The amout of energy used determines the amplitude and frequency of a wave.
It's wavelength or frequency. The energy of a light photon (particle of light) is equal to (h x c) / wavelength, or to h x frequency, where h is Planck's constant and c is the velocity of light in a vacuum.
The amplitude of the wave determines how much energy it is carrying. A wave with a greater amplitude carries more energy than a wave with a smaller amplitude.
The frequency of the electromagnetic wave determines the amount of energy it carries.
The amplitude of a wave determines its energy. The larger the amplitude, the more energy the wave carries.
The wave nature of light can be demonstrated through phenomena such as interference and diffraction, where light waves exhibit patterns that can only be explained by wave behavior. Additionally, experiments like the double-slit experiment further support the wave nature of light by showing interference patterns characteristic of wave propagation. These observations indicate that light behaves as a wave rather than a particle in certain situations.
It's wavelength or frequency. The energy of a light photon (particle of light) is equal to (h x c) / wavelength, or to h x frequency, where h is Planck's constant and c is the velocity of light in a vacuum.
The amplitude of the wave determines how much energy it is carrying. A wave with a greater amplitude carries more energy than a wave with a smaller amplitude.
The frequency of the electromagnetic wave determines the amount of energy it carries.
The amplitude of a wave determines its energy. The larger the amplitude, the more energy the wave carries.
The wave nature of light can be demonstrated through phenomena such as interference and diffraction, where light waves exhibit patterns that can only be explained by wave behavior. Additionally, experiments like the double-slit experiment further support the wave nature of light by showing interference patterns characteristic of wave propagation. These observations indicate that light behaves as a wave rather than a particle in certain situations.
The amplitude of a wave is the factor that determines a wave's energy. Amplitude is the measure of the height of the wave, which correlates with the energy the wave carries. Waves with larger amplitudes have more energy.
A light wave's brightness depends on its amplitude, which determines the intensity of the wave. The greater the amplitude, the brighter the light wave will appear.
The amplitude of a sound wave determines its volume. Higher amplitude waves have louder volumes, while lower amplitude waves have quieter volumes.
The amount of energy in a wave is determined by its amplitude, which is the height of the wave from the equilibrium position. Waves with greater amplitude carry more energy.
The energy of an electromagnetic wave is determined by its frequency. The higher the frequency of the wave, the higher the energy it carries. This relationship is described by the equation E=hf, where E is energy, h is the Planck constant, and f is frequency.
We perceive the loudness of a sound wave as a consequence of its amplitude. The frequency of a sound wave determines the pitch we perceive.
converted into thermal energy.