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What kinds of images, virtual or real, are formed by a converging mirror when the object is placed a distance away from the mirror that is a) beyond the center of curvature of the mirror, b) between the center of curvature and half the center of curvature, and c) closer than half of the center of curvature.

Short Answer

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Short Answer: When the object is placed (a) beyond the center of curvature, the converging mirror forms a real, inverted, and smaller image; (b) between the center of curvature and half the center of curvature, the mirror forms a real, inverted, and enlarged image; and (c) closer than half of the center of curvature, it forms a virtual, upright, and enlarged image.

Step by step solution

01

Case a: Object beyond the center of curvature of the mirror

When the object is placed at a distance beyond the center of curvature (C) of the mirror, the converging mirror forms a real, inverted, and smaller image between the center of curvature and the focal point (F) of the mirror. The image is formed by converging the reflected light rays.
02

Case b: Object between the center of curvature and half the center of curvature

In this case, when the object is placed between the center of curvature (C) and half the center of curvature (i.e., the focal point (F)), the converging mirror forms a real, inverted, and enlarged image beyond the center of curvature. The image is formed by converging the reflected light rays.
03

Case c: Object closer than half of the center of curvature

When the object is placed closer than half the center of curvature (i.e., closer than the focal point (F)), the converging mirror forms a virtual, upright, and enlarged image behind the mirror. The image is formed by extending the reflected light rays backward, and the image appears to be on the same side as the object.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Real Image Formation
A converging mirror, also known as a concave mirror, can produce real images under certain conditions. Real images are formed when reflected light rays converge at a specific point.
When an object is placed beyond the center of curvature of the mirror, the real image formed is inverted (upside-down) and smaller than the object. This occurs because the reflected light rays intersect in front of the mirror.
Place the object between the center of curvature and the focal point to observe this phenomenon. Unlike virtual images, real images can be projected on a screen because they exist in space where the light actually converges.
Virtual Image Formation
Converging mirrors also have the capability to create virtual images, but this happens under different circumstances compared to real images.
When an object is located closer to the mirror than the focal point, the mirror forms a virtual image. These images are upright and cannot be projected because the light rays do not actually meet. Instead, they only appear to diverge from behind the mirror<.br> These images are seen on the same side as the object, making them very distinct from real images that are inverted and can be captured on a screen. Virtual images created by concave mirrors are useful in applications like makeup mirrors, which provide an enlarged view of the face.
Center of Curvature
The center of curvature is a crucial point in the study of curved mirrors. This is the center of the sphere from which the mirror segment is taken.
In a concave mirror, it is located on the inner part of the mirror's curve. The radius extending from this center to the reflective surface is called the radius of curvature.
Imagine slicing a large sphere and taking a small section out for the mirror; the center of this original sphere is the center of curvature. This concept helps predict the location of the image formed once the object's distance relative to the center of curvature is known.
Focal Point
The focal point is another fundamental concept when dealing with mirrors. It is located at exactly half the distance of the radius of curvature.
In converging mirrors, parallel rays of light that strike the mirror will all converge or 'focus' at this point after reflection.
The distance from the mirror to the focal point is referred to as the focal length. It is an essential factor in equations involving mirror calculations and determining where an image will form.
Remember, the focal point is where light rays converge, making it a vital part of the image formation process.
Image Characteristics
Understanding the characteristics of images formed by converging mirrors is vital in practical applications.
The three most important characteristics to consider are: orientation (upright or inverted), type (real or virtual), and size (enlarged, reduced, or same as object).
These characteristics change based on the object's location relative to the mirror's focal point and center of curvature.
For instance, an image could be real and inverted when formed by the convergence of actual light rays, or virtual and upright when the mirror causes the rays to appear to be coming from behind its surface.
By knowing these attributes, one can efficiently utilize mirrors in various areas, from optical instruments to everyday gadgets.

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Most popular questions from this chapter

Even the best mirrors absorb or transmit some of the light incident on them. The highest-quality mirrors might reflect \(99.997 \%\) of incident light intensity. Suppose a cubical "room, \(3.00 \mathrm{~m}\) on an edge, were constructed with such mirrors for the walls, floor, and ceiling. How slowly would such a room get dark? Estimate the time required for the intensity of light in such a room to fall to \(1.00 \%\) of its initial value after the only light source in the room is switched off.

If you look at an object at the bottom of a pool, the pool looks less deep than it actually is. a) From what you have learned, calculate how deep a pool seems to be if it is actually 4 feet deep and you look directly down on it. The refractive index of water is \(1.33 .\) b) Would the pool look more or less deep if you look at it from an angle other than vertical? Answer this qualitatively, without using an equation.

Among the instruments Apollo astronauts left on the Moon were reflectors used to bounce laser beams back to Earth. These made it possible to measure the distance from the Earth to the Moon with unprecedented precision (uncertainties of a few centimeters out of \(384,000 \mathrm{~km}\) ), for the study both of celestial mechanics and of plate tectonics on Earth. The reflectors consisted not of ordinary mirrors, but of arrays of corner cubes, each consisting of three square plane mirrors fixed perpendicular to each other, as adjacent faces of a cube. Why? Explain the function and advantages of this design.

Answer as true or false with an explanation for the following: The wavelength of He-Ne laser light in water is less than its wavelength in the air. (The refractive index of water is \(1.33 .\)

The magnification of a convex mirror is \(0.60 \times\) for an object \(2.0 \mathrm{~m}\) from the mirror. What is the focal length of this mirror?

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