ligt waves are different from other ways because they have charicteristics of particles and waves. It has never been proven that it is one or the other. Youngs double slit experiment shows us that light waves diffract and interfere.
Light demonstrates wave characteristics when it undergoes phenomena such as interference, diffraction, and polarization. These behaviors are consistent with light behaving as a wave rather than a particle.
The wavelength of a light wave can be used to measure the color of the light. Different wavelengths correspond to different colors of light on the visible spectrum.
The distance from one wave peak to the next wave peak
Ultraviolet waves have shorter wavelengths than visible light waves.
The blue wave of light has a shorter wavelength and higher energy than the red wave of light. This leads to blue light being scattered more easily by the atmosphere, which is why the sky appears blue. On the other hand, red light is less scattered and is more visible in the evening when the sun is low in the sky.
Light demonstrates wave characteristics when it undergoes phenomena such as interference, diffraction, and polarization. These behaviors are consistent with light behaving as a wave rather than a particle.
The wavelength of a light wave can be used to measure the color of the light. Different wavelengths correspond to different colors of light on the visible spectrum.
The distance from one wave peak to the next wave peak
Ultraviolet waves have shorter wavelengths than visible light waves.
Newton's corpuscular theory Huygen's mechanical wave theory Maxwell's electromagnetic wave theory Finally Planck's quantum theory LIght as a single "photon" acts somewhat differently than a wave (of energy).
Light and other electromagnetic waves do indeed travel as a wave. For that reason, light, radio waves and all other electromagnetic waves can be characterized by a wavelength. Different colors of light have different wavelengths in the range of around 400 nanometers to 800 nanometers. However, they can also be considered to be particles instead of waves. In some branches of physics, the concept of light as a particle can be very useful. For most of us, treating light as a wave is quite sufficient.
The blue wave of light has a shorter wavelength and higher energy than the red wave of light. This leads to blue light being scattered more easily by the atmosphere, which is why the sky appears blue. On the other hand, red light is less scattered and is more visible in the evening when the sun is low in the sky.
In different experimental conditions, light can behave as both a wave and a particle. This phenomenon is known as wave-particle duality. In some experiments, light behaves more like a wave, exhibiting characteristics such as interference and diffraction. In other experiments, light behaves more like a particle, with properties such as momentum and energy quantization. The behavior of light depends on the specific experimental setup and the interactions it undergoes.
...colors when the light enters your eyes.
Polarization supports the wave theory of light by demonstrating that light behaves as a transverse wave, which can oscillate in different directions. When light is polarized, it shows that the waves can vibrate in a specific plane rather than in all directions, aligning with the characteristics of wave behavior. This phenomenon is consistent with the predictions of the wave theory, as it explains the interaction of light with materials that filter or absorb certain orientations of light waves. Therefore, polarization provides compelling evidence that light exhibits wave-like properties.
Violet light has shorter wavelength than any other color. I looked it up.
The energy of a light wave is inversely proportional to its length. In other words, shorter light waves have more energy than longer light waves. This relationship is described by the equation E=hc/λ, where E is energy, h is Planck's constant, c is the speed of light, and λ is the wavelength of the light wave.