The final is to determine the amplitude after the 2 superposition of coherent waves. Is there possible the amplitude can be attained by mathematically if the 2 waves are in phase. I mean constructive interference. I have tried to solve in mathematically. None of them fulfilled the conditions.
Ben Looi Look in the playlists on interference of light. There are dozens of videos there that will answer your questions. PHYSICS 60 INTERFERENCE OF LIGHT
+Lautaro Vergara He means that the phase difference can be deduced from the extra distance. As long as it is clear what he means, it really doesn't matter too much in which way he writes down the equations. I could choose to use a smiley face with sunglasses as a variable if I felt like it (in fact, I am gonna try that on some future math exam just for the lulz) and that wouldn't break math in any way at all. =P
The derivation of that equation is explained in this video: Physics - Mechanics: Mechanical Waves (11 of 21) The Interference of Waves (Same Direction) th-cam.com/video/xnFG6eUcRRY/w-d-xo.html
Great! 😊
Thank you. 🙂
The final is to determine the amplitude after the 2 superposition of coherent waves. Is there possible the amplitude can be attained by mathematically if the 2 waves are in phase. I mean constructive interference. I have tried to solve in mathematically. None of them fulfilled the conditions.
Ben Looi
Look in the playlists on interference of light. There are dozens of videos there that will answer your questions.
PHYSICS 60 INTERFERENCE OF LIGHT
very nice t
0.47 m CANNOT BE the phase difference. The phase difference is measured in radians!
+Lautaro Vergara
He means that the phase difference can be deduced from the extra distance.
As long as it is clear what he means, it really doesn't matter too much in which way he writes down the equations.
I could choose to use a smiley face with sunglasses as a variable if I felt like it (in fact, I am gonna try that on some future math exam just for the lulz) and that wouldn't break math in any way at all. =P
how do you get equation y1+y2 ?
The derivation of that equation is explained in this video: Physics - Mechanics: Mechanical Waves (11 of 21) The Interference of Waves (Same Direction) th-cam.com/video/xnFG6eUcRRY/w-d-xo.html
thank you sir