Yes and no. If you're really talking about just one photon, and say you're going to shoot it a two-slit apparatus and measure where it winds up somewhere beyond the slits, you will only measure one impact position - you won't really see a 'diffraction pattern' because there's only one photon.
In some sense, however, there is a diffraction pattern. The bizarre quantum-mechanical 'photon' is described by a wave function that basically can give us probabilities that the photon will hit any point on your detector. This wave function will go partially through both slits, and the resulting wave function on the other side WILL exhibit an interference pattern (!). This diffraction pattern will show itself if you fire photons singly through the slits, i.e. fire one, wait a bit, and fire another. Even though the photons are spaced so that they aren't directly interfering with each other, they will build up a diffraction pattern on the other side because of the diffraction pattern in each photon's individual wave function.
The wavelength of the wave is a key property that determines how much it will diffract when encountering an obstacle. Waves with longer wavelengths tend to diffract more, while waves with shorter wavelengths diffract less.
Intensity (brightness) and energy (frequency).
Yes, light waves can diffract just like any other waves. Diffraction is the bending of waves around obstacles and edges. When light waves encounter a small opening or obstacle, they can diffract and exhibit patterns of interference and diffraction.
The term for the small packets of energy emitted from light is called photons.
X-rays and electrons have the greatest ability to diffract due to their short wavelengths allowing them to interact with the atomic structure of materials, leading to pronounced diffraction effects.
The wavelength of the wave is a key property that determines how much it will diffract when encountering an obstacle. Waves with longer wavelengths tend to diffract more, while waves with shorter wavelengths diffract less.
Intensity (brightness) and energy (frequency).
Yes, light waves can diffract just like any other waves. Diffraction is the bending of waves around obstacles and edges. When light waves encounter a small opening or obstacle, they can diffract and exhibit patterns of interference and diffraction.
Diffuse.
PRISM
okay
The term for the small packets of energy emitted from light is called photons.
X-rays and electrons have the greatest ability to diffract due to their short wavelengths allowing them to interact with the atomic structure of materials, leading to pronounced diffraction effects.
Photons.
A transparent/translucent medium with a density that is different to the one it has just left is necessary to diffract light. For example, you could shine light into a block of glass to diffract it at a different angle to when it entered.
You can reflect it, absorb it or even diffract it (a bit).
Waves diffract because they encounter an obstacle or pass through an opening that is comparable in size to their wavelength. This causes the wavefronts to bend around the obstacle or spread out as they pass through the opening, resulting in the phenomenon of diffraction.