The object should be placed 10 cm away from the pole of the mirror to form a real image with a size exactly one fourth the size of the object. This is achieved using the mirror formula: 1/f = 1/v + 1/u, where u is the object distance, v is the image distance, and f is the focal length of the mirror.
if the focal length is greater than the object distance from the lens
No, a hubcap is not a converging spherical mirror. A hubcap is a protective covering for the center of a vehicle's wheel, while a converging spherical mirror is a mirror that curves inwards to focus light rays at a point.
You must stand closer to the converging mirror than its focal point. This position will allow the converging mirror to produce an inverted image of yourself.
If a concave mirror is made flatter, its focal length will increase. This is because a flatter mirror has a larger radius of curvature, resulting in light rays converging at a point farther away from the mirror.
The object must be located beyond the focal point of the mirror for a converging mirror to produce a real image.
why do we use concave mirror as converging mirror
if the focal length is greater than the object distance from the lens
No, a hubcap is not a converging spherical mirror. A hubcap is a protective covering for the center of a vehicle's wheel, while a converging spherical mirror is a mirror that curves inwards to focus light rays at a point.
When the object lies within its focal length then no real image can be produced
You must stand closer to the converging mirror than its focal point. This position will allow the converging mirror to produce an inverted image of yourself.
If a concave mirror is made flatter, its focal length will increase. This is because a flatter mirror has a larger radius of curvature, resulting in light rays converging at a point farther away from the mirror.
10cm
The object must be located beyond the focal point of the mirror for a converging mirror to produce a real image.
A converging mirror is also known as a concave mirror. It is curved inward, causing light rays that strike it to converge towards a focal point. This type of mirror is often used in reflective telescopes and makeup mirrors.
A converging mirror will not produce a real image if the object is placed between the focal point and the mirror. In this case, the mirror will produce a virtual image on the same side as the object.
When an object is placed closer to a concave mirror than its focal length, the image formed is virtual, upright, and magnified. The image is located behind the mirror, and the rays of light appear to diverge from a point behind the mirror rather than converging at a real focal point.
A converging mirror is a type of mirror that bulges outward and curves inward, also known as a concave mirror. These mirrors are curved inward and can converge light rays to a single focal point. They are commonly used in telescopes, microscopes, and makeup mirrors.