Physics

Draw a ray diagram to show the refraction of a monochromatic ray through a prism when it suffers minimum deviation.

Refraction Plane Surfaces

ICSE 2017

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Answer

The ray diagram below shows the refraction of a monochromatic ray of light through a prism in the position of minimum deviation. The refracted ray QR is parallel to the base BC of the prism or angle of incidence (i) = angle of emergence (e).

Draw a ray diagram to show the refraction of a monochromatic ray through a prism when it suffers minimum deviation. ICSE 2017 Physics Solved Question Paper.

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Physics

Draw a ray diagram to show the refraction of a monochromatic ray through a prism when it suffers minimum deviation.

Refraction Plane Surfaces

ICSE 2017

Answer

Related Questions

How is the refractive index of a material related to?
(i) real and apparent depth?
(ii) velocity of light in vacuum or air and the velocity of light in a given medium?

State the conditions required for total internal reflection of light to take place.

The human ear can detect continuous sounds in the frequency range from 20 Hz to 20,000 Hz. Assuming that the speed of sound in air is 330 ms^-1 for all frequencies, calculate the wavelengths corresponding to the given extreme frequencies of the audible range.

An enemy plane is at a distance of 300 km from a radar. In how much time the radar will be able to detect the plane? Take velocity of radio waves as 3 x 10⁸ m s^-1.

Physics

Draw a ray diagram to show the refraction of a monochromatic ray through a prism when it suffers minimum deviation.

Refraction Plane Surfaces

ICSE 2017

Answer

Related Questions

How is the refractive index of a material related to?(i) real and apparent depth?(ii) velocity of light in vacuum or air and the velocity of light in a given medium?

State the conditions required for total internal reflection of light to take place.

The human ear can detect continuous sounds in the frequency range from 20 Hz to 20,000 Hz. Assuming that the speed of sound in air is 330 ms-1 for all frequencies, calculate the wavelengths corresponding to the given extreme frequencies of the audible range.

An enemy plane is at a distance of 300 km from a radar. In how much time the radar will be able to detect the plane? Take velocity of radio waves as 3 x 108 m s-1.

How is the refractive index of a material related to?
(i) real and apparent depth?
(ii) velocity of light in vacuum or air and the velocity of light in a given medium?

The human ear can detect continuous sounds in the frequency range from 20 Hz to 20,000 Hz. Assuming that the speed of sound in air is 330 ms^-1 for all frequencies, calculate the wavelengths corresponding to the given extreme frequencies of the audible range.

An enemy plane is at a distance of 300 km from a radar. In how much time the radar will be able to detect the plane? Take velocity of radio waves as 3 x 10⁸ m s^-1.