it will produce rainbow of colours...
Diffraction can occur with white light as well as monochromatic light. When white light passes through a diffracting element, such as a narrow slit, it causes the light to spread out into its component colors, leading to a colorful diffraction pattern called a spectrum.
The color next to white in the interference pattern is cyan, while the farthest color from white in the interference pattern is magenta. In Young's Double Slit experiment with white light, different colors of light diffract and interfere producing a pattern of colors, with cyan being closer to white and magenta being farther away.
When light bends through a slit in a door, it undergoes diffraction, causing the light waves to spread out and create an interference pattern on the other side of the slit. This phenomenon is known as single-slit diffraction and is a characteristic of wave behavior exhibited by light.
Diffraction occurs when light passes through a narrow slit and bends around the edges of the slit, causing interference patterns to form on a screen placed behind the slit.
Yes, white light can produce an interference pattern when passing through a double-slit setup. However, due to its broad spectrum of wavelengths, the resulting pattern may not be as distinct as when using monochromatic light.
There will be no interference because intensity of light reflected from mirror will be so great that it won't be visible and we will get uniform illumination.
Diffraction can occur with white light as well as monochromatic light. When white light passes through a diffracting element, such as a narrow slit, it causes the light to spread out into its component colors, leading to a colorful diffraction pattern called a spectrum.
The color next to white in the interference pattern is cyan, while the farthest color from white in the interference pattern is magenta. In Young's Double Slit experiment with white light, different colors of light diffract and interfere producing a pattern of colors, with cyan being closer to white and magenta being farther away.
When light bends through a slit in a door, it undergoes diffraction, causing the light waves to spread out and create an interference pattern on the other side of the slit. This phenomenon is known as single-slit diffraction and is a characteristic of wave behavior exhibited by light.
Diffraction occurs when light passes through a narrow slit and bends around the edges of the slit, causing interference patterns to form on a screen placed behind the slit.
Yes, white light can produce an interference pattern when passing through a double-slit setup. However, due to its broad spectrum of wavelengths, the resulting pattern may not be as distinct as when using monochromatic light.
When light passes through a narrow slit, the phenomenon of wavelength diffraction causes the light waves to spread out and interfere with each other. This results in a pattern of alternating bright and dark fringes on a screen placed behind the slit. The width of the slit and the wavelength of the light determine the spacing of these fringes.
Any small slit will scatter light. Especially blue light.
The middle slit in a double-slit experiment represents a point where light waves can pass through and interfere with each other, creating an interference pattern. This pattern demonstrates the wave-like behavior of light.
The purpose of a slit is to cause diffraction of the light. This means the light spreads out in all directions, as opposed to entering a large hole where the light would pass straight through in its original direction.
The slit in a spectroscope serves to limit the amount of light entering the instrument, helping to improve the spectral resolution by reducing the impact of background noise and enhancing the clarity of spectral lines. It also helps to ensure that only light from the desired source reaches the grating or prism inside the spectroscope for dispersion and analysis.
The red filter will only allow red light to pass through. When red light is used in the double slit experiment, the interference pattern will be primarily red in color. The positions of the interference fringes will not change, but the color of the light observed will be red.