When you compare number of photons to the screen between a single slit and a double slit experiment, you need to specify what is the same and what is different. Of course the source intensity is the same but what about the slit width? If the same number of photons per unit time goes through the double slit arrangement as goes through the single slit, then you should collect the same number of photons at the screen.Bill Sellers said:If so, then wouldn’t this imply that fewer photons are detected in the 2-slit setup vs. 1-slit?
A diffraction envelope is a pattern of light or other electromagnetic radiation that is produced when a wave passes through a small opening or around an obstacle. It is characterized by a series of peaks and valleys that can be used to analyze the properties of the wave.
The diffraction envelope is created when a wave, such as light, passes through a small opening or around an obstacle that is a similar size to its wavelength. This causes the wave to bend and interfere with itself, creating the characteristic pattern.
To interpret the diffraction envelope, you must analyze the peaks and valleys in the pattern. The location and spacing of these features can provide information about the size and shape of the opening or obstacle, as well as the wavelength of the wave.
The diffraction envelope can be affected by a variety of factors, including the size and shape of the opening or obstacle, the wavelength of the wave, and the distance between the wave source and the diffraction medium. Additionally, the properties of the medium, such as its refractive index, can also play a role.
The diffraction envelope is used in a variety of scientific fields, such as optics, acoustics, and X-ray crystallography. It can be used to study the properties of waves and the physical characteristics of materials, as well as to develop new technologies and techniques for analyzing and manipulating waves.