Photo electric effect
E = h * f
Wher E is the energy of the phton, h is Planck's constant and F is the frequency.
So energy depebds on frequency, but not on speed.
The wavelength of a lepton is inversely proportional to its momentum, which is related to its energy and mass. The spin of a lepton is a fundamental property intrinsic to the particle itself, independent of its momentum or wavelength.
As the wavelength of electromagnetic waves gets shorter, the energy carried by the waves increases. This is because energy is directly proportional to frequency, and shorter wavelengths correspond to higher frequencies. Therefore, as the wavelength decreases, the energy carried by the waves increases.
As the wavelength of light decreases, the energy of the photons increases. This means that shorter wavelengths can carry higher energy. For example, ultraviolet and X-ray light have shorter wavelengths than visible light and carry more energy.
Energy is being carried from particle to particle in a water wave, causing the particles to move in a circular motion as the wave passes through. This energy transfer enables the wave to propagate through the water.
As the wavelength of an electromagnetic wave decreases, the frequency of the wave increases. This means that the energy carried by the wave also increases, as energy is directly proportional to frequency. Therefore, shorter wavelength corresponds to higher frequency and energy in an electromagnetic wave.
The wavelength of a lepton is inversely proportional to its momentum, which is related to its energy and mass. The spin of a lepton is a fundamental property intrinsic to the particle itself, independent of its momentum or wavelength.
Energy and wavelength are related by Planck's Energy formula E = hf = hc/w where w is the wavelength.
As the wavelength of electromagnetic waves gets shorter, the energy carried by the waves increases. This is because energy is directly proportional to frequency, and shorter wavelengths correspond to higher frequencies. Therefore, as the wavelength decreases, the energy carried by the waves increases.
The momentum of a particle in a box is related to its energy levels through the de Broglie wavelength. As the momentum of the particle increases, its de Broglie wavelength decreases, leading to higher energy levels in the box. This relationship is described by the Heisenberg Uncertainty Principle, which states that the more precisely the momentum of a particle is known, the less precisely its position can be determined, and vice versa.
Energy is being carried from particle to particle in a water wave, causing the particles to move in a circular motion as the wave passes through. This energy transfer enables the wave to propagate through the water.
As the wavelength of light decreases, the energy of the photons increases. This means that shorter wavelengths can carry higher energy. For example, ultraviolet and X-ray light have shorter wavelengths than visible light and carry more energy.
Energy of light photons is related to frequency as Energy = h(Planck's constant)* frequency Frequency = velocity of wave / wavelength So energy = h * velocity of the wave / wavelength
As the wavelength of an electromagnetic wave decreases, the frequency of the wave increases. This means that the energy carried by the wave also increases, as energy is directly proportional to frequency. Therefore, shorter wavelength corresponds to higher frequency and energy in an electromagnetic wave.
when a particle moves it rubs against other particle's causing thermal energy
Energy and wavelength of electromagnetic radiation are inversely related. This means that as the wavelength decreases, the energy of the radiation increases, and vice versa. This relationship is described by the equation E = hc/λ, where E is the energy, h is Planck's constant, c is the speed of light, and λ is the wavelength.
inversely
The energy of a photon is related to its frequency or wavelength through the equation E=hf, where E is energy, h is Planck's constant, and f is frequency. Alternatively, you can use the equation E=hc/λ, where λ is the wavelength and c is the speed of light.