Apply Snell's Law for the interface of first two transparent materials,
n1sin1
= n2sin
2
1.28 * sin37 = n2 * sin2
0.7703 = n2*sin2
.........(1)
Apply Snell's Law for the interface of second and third
material,
n2 sin2
= n3 sin
3
From eq (1),
0.7703 = n3 * sin3
........(2)
Apply Snell's Law for the interface of third and fourth material,
From eq (2),
n3sin3
= n4sin
4
0.7703 = 1.47 * sinθ4
sin4
= 0.524
4
= 31.60 deg
Apply Snell's Law for the interface of first two transparent material and air,
n1 sin1
= na sin
5
0.7703 = 1 * sin5
5
= 50.38 deg
Chapter 33, Problem 051 In the figure, light is incident at angle 01-37.0° on a boundary...
Chapter 33, Problem 051 GO In the figure, light is incident at angle 01 = 42.0° on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If n1 = 1.28, n2 = 1.38, n3 = 1.30 and 14 = 1.45, what is the value of (a) es and (b) 04? Units (a) Os = Number (b) =...
In the figure, light is incident at angle θ1
= 37.0˚ on a boundary between two transparent materials. Some of
the light travels down through the next three layers of transparent
materials, while some of it reflects upward and then escapes into
the air. If n1 = 1.26, n2 =
1.36, n3 = 1.34and n4 =
1.45, what is the value of (a)
θ5 and (b)
θ4?
Air ns Y24
In the figure, light is incident at angle θ1 = 40.0° on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If n1 = 1.28, n2 = 1.36, n3 = 1.34 and n4 = 1.43, what is the value of (a) θ5 and (b) θ4? Air n1 7ng 74 (a) θ5_ Number Units (b) θ,-Number Units
Chapter 33, Problem 051 GO In the figure, light is incident at angle e1 40.0° on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If n1 1.32, n2 1.42, n3 1.30 and n4 1.47, what is the value of (a) 05 and (b) 04? Air (a) 0s Number Units (b)04 Number Units
In the figure, light is incident at angle θ1 = 37.0˚ on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If n1 = 1.26, n2 = 1.42, n3 = 1.34 and n4 = 1.45, what is the value of (a) θ5 and (b) θ4?
Chapter 33, Problem 051 In the figure, light is incident at angle 01 = 42.0° on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If ny = 1.32, n2 = 1.42, n3 = 1.30 and 14 = 1.47, what is the value of (a) 05 and (b) 04? Į Air (a) 05 = Number Units (b)...
In the figure, light is incident at angle 0, 42 on a boundary between two transparent materials. Some of the light travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. If n,-1.32, n2 = 1.42, n3 = 1.30 and n4 = 1.43, what is the value of (a) θ5 and (b) θ? e, I n4 (a) = Number Units (b) 04-Number Units
In the figure, light is incident at angle theta_1 = 21.7 degree on a boundary between two transparent materials. Some of the light then travels down through the next three layers of transparent materials, while some of it reflects upward and then escapes into the air. The index of refractions are n_1 = 1.22, n_2 = 1.40, n_3 = 1.32, n_4 = 1.52 and n_air = 1.00. What is the value of theta_4? What is the value of theta_5?
In the figure, a light ray is incident at angle 01 = 51° on a series of five transparent layers with parallel boundaries. For layers 1 and 3, L1 = 24 um, L3 = 42 um, n1 = 1.6, and n3 = 1.54. (a) At what angle does the light emerge back into air at the right? (b) How much time does the light take to travel through layer 3? Air | - |- - (a) Number Units (b) Number...
Partner: Date Name 11 Snell's Law Introduction When light passes from one material to another it is always bent away from its original path. This process is known as refraction and the change in direction depends on the change in optical density (or refractive index) of the two materials. A larger change in refractive index results in a larger change in angle between incoming and outgoing light beams. A light beam bends closer to the normal in the material with...