Part 1 Visible light of frequency f = 5 x 10¹4 Hz is beamed directly at a metal reflector. Light is traveling in oil, where its speed is 1.5 x 10 m/s. a) Calculate the wavelength of the visible light. x A = b) Consider A = 6 x 10-7 m. The spacing Ar between successive antinodes in the resulting standing-wave pattern is given by: 6 x 10-7 2 c) Az E₁ m = b). E₂ = Calculate Δ.r. Part 2 A stan ing wave is given by E= 400 sin( 7.14 x) cos( 11.42 t). Two waves E₁ and E₂ can be superimposed to generate this standing wave. 772 6 x 10-7 3 Determine the wave E, as per the below: sin( Determine the wave E₂ as per the below: sin( m x+ 6 x 10-7 4 c) The wavelength of this wave is 0.87 m. For a > 0, what is the location of the antinode having the smallest value of x?
Part 1 Visible light of frequency f = 5 x 10¹4 Hz is beamed directly at a metal reflector. Light is traveling in oil, where its speed is 1.5 x 10 m/s. a) Calculate the wavelength of the visible light. x A = b) Consider A = 6 x 10-7 m. The spacing Ar between successive antinodes in the resulting standing-wave pattern is given by: 6 x 10-7 2 c) Az E₁ m = b). E₂ = Calculate Δ.r. Part 2 A stan ing wave is given by E= 400 sin( 7.14 x) cos( 11.42 t). Two waves E₁ and E₂ can be superimposed to generate this standing wave. 772 6 x 10-7 3 Determine the wave E, as per the below: sin( Determine the wave E₂ as per the below: sin( m x+ 6 x 10-7 4 c) The wavelength of this wave is 0.87 m. For a > 0, what is the location of the antinode having the smallest value of x?
Related questions
Question
Expert Solution
This question has been solved!
Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.
Step by step
Solved in 6 steps with 9 images