Dispersion of Light ( Form 3, Physics)

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Test your knowledge on natural dispersion phenomena.

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YAKILI LMS

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Dispersion of Light ( Form 3, Physics)


Dispersion of Light ( Form 3, Physics)Online version Test your knowledge on natural dispersion phenomena. by YAKILI LMS 1 Dispersion can occur in the Earth's atmosphere due to the refraction of light. Yes No 2 Dispersion of light is caused by the absorption of certain colors in the atmosphere. Yes No 3 Dispersion is unrelated to the refraction of light in natural phenomena. Yes No 4 Natural dispersion only occurs in laboratory conditions and not in nature. Yes No 5 The splitting of sunlight into a spectrum during a rainbow is a natural dispersion phenomenon. Yes No 6 Natural dispersion occurs when white light splits into colors passing through a prism. Yes No 7 Natural dispersion does not contribute to the formation of rainbows. Yes No 8 Rainbows are a natural example of dispersion of light in the atmosphere. Yes No 9 In natural dispersion, all colors of light travel at the same speed through a medium. Yes No 10 Dispersion happens because different colors of light travel at different speeds in a medium. Yes No 11 When an object is placed between F and a converging lens, the image formed is virtual. Yes No 12 A ray passing parallel to the principal axis after refraction passes through the focus on the other side of the lens. Yes No 13 In a ray diagram, the image appears on the same side as the object when the object is between F and the lens. Yes No 14 The image formed by a lens when the object is between F and the lens is magnified and upright. Yes No 15 In ray diagrams, the image for an object between F and the lens is always on the opposite side of the lens. Yes No 16 When an object is between F and a converging lens, the image formed is real and inverted. Yes No 17 A ray passing through the center of a converging lens is bent and passes through the focus. Yes No 18 The image formed in this case is always smaller than the object. Yes No 19 The image formed by a diverging lens when the object is between F and the lens is real and magnified. Yes No 20 When an object is placed between the focal point (F) and a converging lens, the image formed is virtual and erect. Yes No 21 In a concave lens, the image is always magnified and real. Yes No 22 The formula for magnification is m = image height / object height. Yes No 23 The formula for calculating image size does not involve the focal length. Yes No 24 The magnification formula is m = object height / image height. Yes No 25 The magnification of an image is the ratio of the image height to the object height. Yes No 26 For a virtual image, the magnification is always negative. Yes No 27 The magnification of a lens can be greater than 10 in all cases. Yes No 28 A magnification of 2 means the image is twice as tall as the object. Yes No 29 In a convex lens, the image can be real or virtual depending on the object position. Yes No 30 When the object is beyond 2F in a convex lens, the image is real and inverted. Yes No 31 The image formed by a diverging lens when the object is beyond 2F is real and inverted. Yes No 32 When an object is beyond 2F, the image formed is virtual and upright. Yes No 33 In ray diagrams, the principal rays help locate the image formed by a lens. Yes No 34 In ray diagrams, the rays always pass through the focal point before reaching the image. Yes No 35 When an object is placed beyond twice the focal length (2F) of a converging lens, the image formed is real and inverted. Yes No 36 The image formed by a converging lens when the object is beyond 2F is real, inverted, and smaller. Yes No 37 For an object beyond 2F, the image is larger than the object. Yes No 38 Ray diagrams are only useful for concave mirrors, not lenses. Yes No 39 Ray diagrams can be used to determine the position and size of the image formed by a lens. Yes No 40 For an object placed beyond twice the focal length (2F) of a converging lens, the image formed is smaller than the object. Yes No 41 Violet has the highest energy among visible light colors. Yes No 42 Energy increases as the wavelength of light decreases. Yes No 43 White light contains all visible colors. Yes No 44 The spectrum of white light ranges from red to violet. Yes No 45 Green light has more energy than violet light. Yes No 46 Red light has lower energy than blue light. Yes No 47 Yellow light has the highest energy in the visible spectrum. Yes No 48 Infrared light is part of the visible spectrum. Yes No 49 All colors of white light have the same energy. Yes No 50 Ultraviolet light has less energy than red light. Yes No

Dispersion of Light ( Form 3, Physics)

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Dispersion of Light ( Form 3, Physics)Online version

by YAKILI LMS

Dispersion can occur in the Earth's atmosphere due to the refraction of light.

Dispersion of light is caused by the absorption of certain colors in the atmosphere.

Dispersion is unrelated to the refraction of light in natural phenomena.

Natural dispersion only occurs in laboratory conditions and not in nature.

The splitting of sunlight into a spectrum during a rainbow is a natural dispersion phenomenon.

Natural dispersion occurs when white light splits into colors passing through a prism.

Natural dispersion does not contribute to the formation of rainbows.

Rainbows are a natural example of dispersion of light in the atmosphere.

In natural dispersion, all colors of light travel at the same speed through a medium.

Dispersion happens because different colors of light travel at different speeds in a medium.

When an object is placed between F and a converging lens, the image formed is virtual.

A ray passing parallel to the principal axis after refraction passes through the focus on the other side of the lens.

In a ray diagram, the image appears on the same side as the object when the object is between F and the lens.

The image formed by a lens when the object is between F and the lens is magnified and upright.

In ray diagrams, the image for an object between F and the lens is always on the opposite side of the lens.

When an object is between F and a converging lens, the image formed is real and inverted.

A ray passing through the center of a converging lens is bent and passes through the focus.

The image formed in this case is always smaller than the object.

The image formed by a diverging lens when the object is between F and the lens is real and magnified.

When an object is placed between the focal point (F) and a converging lens, the image formed is virtual and erect.

In a concave lens, the image is always magnified and real.

The formula for magnification is m = image height / object height.

The formula for calculating image size does not involve the focal length.

The magnification formula is m = object height / image height.

The magnification of an image is the ratio of the image height to the object height.

For a virtual image, the magnification is always negative.

The magnification of a lens can be greater than 10 in all cases.

A magnification of 2 means the image is twice as tall as the object.

In a convex lens, the image can be real or virtual depending on the object position.

When the object is beyond 2F in a convex lens, the image is real and inverted.

The image formed by a diverging lens when the object is beyond 2F is real and inverted.

When an object is beyond 2F, the image formed is virtual and upright.

In ray diagrams, the principal rays help locate the image formed by a lens.

In ray diagrams, the rays always pass through the focal point before reaching the image.

When an object is placed beyond twice the focal length (2F) of a converging lens, the image formed is real and inverted.

The image formed by a converging lens when the object is beyond 2F is real, inverted, and smaller.

For an object beyond 2F, the image is larger than the object.

Ray diagrams are only useful for concave mirrors, not lenses.

Ray diagrams can be used to determine the position and size of the image formed by a lens.

For an object placed beyond twice the focal length (2F) of a converging lens, the image formed is smaller than the object.

Violet has the highest energy among visible light colors.

Energy increases as the wavelength of light decreases.

White light contains all visible colors.

The spectrum of white light ranges from red to violet.

Green light has more energy than violet light.

Red light has lower energy than blue light.

Yellow light has the highest energy in the visible spectrum.

Infrared light is part of the visible spectrum.

All colors of white light have the same energy.

Ultraviolet light has less energy than red light.