Consider the figure below that shows unpolarized light with intensity I0 = 8.75 W/m2 passing through three ideal polarizing filters A, B, and C. The polarizing axes are set to: A: vertical (along the positive y-axis). B: θ1 = 38.0° clockwise with respect to the positive y-axis. C: θ2 = 34.5° counterclockwise with respect to the negative y-axis. Calculate the intensity of the light (in W/m2) after it has passed through polarizer C.

Consider the figure below that shows unpolarized light with intensity I0 = 8.75 W/m2 passing through three ideal polarizing filters A, B, and C. The polarizing axes are set to: A: vertical (along the positive y-axis). B: θ1 = 38.0° clockwise with respect to the positive y-axis. C: θ2 = 34.5° counterclockwise with respect to the negative y-axis. Calculate the intensity of the light (in W/m2) after it has passed through polarizer C.

Similar questions

Unpolarized light passes through two ideal Polaroid sheets. The axis of the first is vertical and the axis of the second is at 40.0° to the vertical. What fraction of the incident light is transmitted? Three polarizing plates whose planes are parallel are centered on a common axis. The directions of the transmission axes relative to the common vertical direction are shown in the figure below. A linearly polarized beam of light with plane of polarization parallel to the vertical reference direction is incident from the left onto the first disk with intensity I₁ = = 11.0 units (arbitrary). Calculate the transmitted intensity I, when 0₁ = 21.0°, 0₂ = 41.0°, and 03 = 59.0°. Hint: Make repeated use of Malus's law. 1 units If= = I; 0₁ 02 03
Unpolarized light passes through two ideal polarizers. The axis of the first is vertical, and the axis of the second is at 70° to the vertical. What fraction of the incident light is transmitted through both polarizers? 0.342 0.171 0.0585 0.117
A beam of unpolarized light of intensity 1.65E3 W/m² passes through a series of ideal polarizing filters with their polarizing directions turned to various angles as shown in the figure. What is the light intensity at point C (in W/m²)? % Unpolarized 60° 8 c
Unpolarized light of intensity20.0 W/cm2 is incident on two polarizing filter. The axis of the first filter is at an angle of 25 degrees counterclockwise from the vertical and the axis of the second filter is 62 degrees counterclockwise from the vertical. a.) What is the intensity of the light after it has passed through the second polarizer?
A beam of unpolarized light of intensity 9.53E3 W/m2 passes through a series of ideal polarizing filters with their polarizing directions turned to various angles as shown in the figure. What is the light intensity at point B (in W/m2)?
10. Three polarizing disks have planes that are parallel and centered on a common axis. The direction of the transmission axis (dashed line) in each case is shown relative to the common vertical direction. A polarized beam of light (with its axis of polarization parallel to the horizontal reference direction) is incident from the left on the first disk with intensity S 780 W/m². Calculate the transmitted intensity if 0₁23.0°, 0 = 32.0°, and 0,= 43.0°. x 28.9 W/m²
A beam of unpolarized light of intensity 4.04E3 W/m2 passes through a series of ideal polarizing filters with their polarizing directions turned to various angles as shown in the figure. If the middle polarizer is removed, what is the light intensity at point C (in W/m2)?
A beam of unpolarized light of intensity 2.17E3 W/m2 passes through a series of ideal polarizing filters with their polarizing directions turned to various angles as shown in the figure. What is the light intensity at point C (in W/m2)? Use 3 sig figs and scientific notation
Experiments show that the ground spider Drassodes cupreus uses one of its several pairs of eyes as a polarization detector In fact, the two eyes in this pair have polarization directions that are at right angles to one another Suppose linearly polarized light with an intensity of 775 W/m² shines from the sky onto the spider and that the intensity transmitted by one of the polarizing eyes is 774 W/m². For this eye, what is the angle between the polarization direction of the eye and the polarization direction of the incident light?
Yellow light with wavelength 600nm propagates in the +x direction. The wave is linearly polarized along the ±y direction. a) Draw a labeled snapshot mode picture of what the electric and magnetic fields look like. Use vector representation. b) Determine the frequency of oscillation of the electric field vector for the yellow light. Is the magnitude of this frequency very large or very small?
A.) Polarized light is incident on 6 polarizing sheets. The axis of the first polarized sheet makes an angle 0 with the plane of polarization. Each subsequent sheet has an axis that is rotated by an angle e from that of adjacent sheets. Find e if 34% of the incident intensity is transmitted by the sheets. B.) Suppose you want to rotate the plane of polarization of a beam of polarized light by 78°, but you do not want the final intensity to be less than 53% of the initial intensity. What is the minimum number of polarizing sheets you must use? Assume that each sheet is rotated the same angle relative to the adjacent sheets. sheets