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forcefield
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If I draw two vertical lines close to each other and watch them from a short distance then I can see an interference pattern. How do you explain it ?
forcefield said:If I draw two vertical lines close to each other and watch them from a short distance then I can see an interference pattern. How do you explain it ?
If I draw two vertical lines close to each other and watch them from a short distance then I can see an interference pattern.
forcefield said:If I draw two vertical lines close to each other and watch them from a short distance then I can see an interference pattern. How do you explain it ?
ZapperZ said:Using your eyes as your primary detector is seldom a good idea. I am sure you know all about optical illusions, etc. How would you know that what you are seeing isn't an optical illusion? If it is, this is now a biology/medical science topic, not a physics topic.
forcefield said:Are you saying that this phenomenon is different from the double-slit experiment (i.e. light from two slits/lines interfering and causing the pattern ?
There are two critical differences here. A simple interference requires monochromatic light (as with a laser). Also, the interference pattern is projected onto a screen without any optical focusing. When view by the eye, it would be difficult to defocus your eye enough to get the interference pattern to fall on the retina.forcefield said:If I draw two vertical lines close to each other and watch them from a short distance then I can see an interference pattern. How do you explain it ?
forcefield said:Hmm, I don't know ALL about optical illusions. I think that seeing the interference pattern in this case must be an optical illusion because I just draw the lines myself.
Are you saying that this phenomenon is different from the double-slit experiment (i.e. light from two slits/lines interfering and causing the pattern ?
Well it's the only primary detector we have got I doubt very much that the camera or any other usefull device could be built using sound smell or hearing.Maybe you could think one into existence.ZapperZ said:This is vague.
Using your eyes as your primary detector is seldom a good idea. I am sure you know all about optical illusions, etc. How would you know that what you are seeing isn't an optical illusion? If it is, this is now a biology/medical science topic, not a physics topic.
Zz.
The double-line experiment, also known as the double-slit experiment, is a classic experiment in quantum mechanics that demonstrates the wave-particle duality of light and matter. It involves sending a beam of particles, such as photons, through two closely spaced parallel slits onto a screen. The resulting interference pattern on the screen shows that the particles behave like waves and interfere with each other, creating a pattern of light and dark bands.
The interference pattern observed in the double-line experiment is significant because it shows that particles can behave like waves and exhibit interference patterns, which was previously thought to only be possible for waves. This challenges our classical understanding of particles and suggests that they have wave-like properties.
The double-line experiment provides evidence for the wave-particle duality theory by demonstrating that particles can behave like waves and exhibit interference patterns. This supports the idea that particles have both wave-like and particle-like properties and that their behavior is dependent on the method of observation.
Yes, the double-line experiment has been performed with other particles besides photons, including electrons, protons, and even molecules. The resulting interference patterns have been consistent with the wave-particle duality theory and have further supported its validity.
The double-line experiment has been a subject of study and debate since it was first performed by Thomas Young in 1801. Over time, our understanding of the experiment has evolved, leading to the development of quantum mechanics and the wave-particle duality theory. New variations of the experiment have been conducted, providing further evidence and insights into the behavior of particles at the quantum level.