the reflection of light on a convex mirrors are more closer
Convex mirrors do not focus light, but instead they diverge the light rays that hit them. This causes the reflected light rays to spread out which results in a wider field of view.
Light can be refracted, reflected, or dispersed when it strikes different types of lenses and mirrors. Convex lenses converge light rays to a focal point, while concave lenses diverge light. Concave and convex mirrors reflect light in different ways: convex mirrors diverge light, creating a virtual image, while concave mirrors can converge light, creating a real image.
Convex mirrors diverge light rays, making objects appear smaller and upright. They have a wider field of view compared to flat or concave mirrors. Convex mirrors are commonly used in rear-view car mirrors to provide a wider perspective of the surroundings.
If it's really a "mirror", then it reflects light, regardless of its shape.
Mirrors reflect light, not refract it. When light hits a concave mirror, it converges to a point known as the focal point. Conversely, light spreading out from a point source will be reflected by a convex mirror, diverging and spreading out.
Convex mirrors spread and not focus light. They do the opposite of concentrating and magnifying. They are the mirror image of what a concave telescope is and does. Pun intended.
Convex mirrors do not focus light, but instead they diverge the light rays that hit them. This causes the reflected light rays to spread out which results in a wider field of view.
Concave mirrors and convex mirrors are two types of curved mirrors. Concave mirrors converge light rays to a focal point and can form real or virtual images. Convex mirrors diverge light rays and produce virtual, upright, and diminished images.
Light has little or no effect on a mirror. The mirrors follow the rule: "the angle of incidence equals the angle of reflection". Concave mirrors concentrate light to a point and convex spread it out.
Light can be refracted, reflected, or dispersed when it strikes different types of lenses and mirrors. Convex lenses converge light rays to a focal point, while concave lenses diverge light. Concave and convex mirrors reflect light in different ways: convex mirrors diverge light, creating a virtual image, while concave mirrors can converge light, creating a real image.
Convex mirrors diverge light rays, making objects appear smaller and upright. They have a wider field of view compared to flat or concave mirrors. Convex mirrors are commonly used in rear-view car mirrors to provide a wider perspective of the surroundings.
If it's really a "mirror", then it reflects light, regardless of its shape.
Mirrors reflect light, not refract it. When light hits a concave mirror, it converges to a point known as the focal point. Conversely, light spreading out from a point source will be reflected by a convex mirror, diverging and spreading out.
Concave mirrors are used to focus light, to produce a parallel beam in car headlights, and so you can have a close look while shaving. Convex mirrors are used for making telescopes, viewfinders in vehicles, and used in supermarkets or stores as surveillance as it gives a wider view.
Yes convex and concave mirrors are also known as spherical mirrors. If mercury coating is made on the convex side of the spherical then mirror is known as concave mirror. If mercury coating is made on the concave side the convex portion would reflect the light fallen so it is named as convex mirror. Actual just a small part of the sphere is taken out and this would act as the spherical mirror.
Concave and convex mirrors both reflect light. Concave mirrors converge light rays to a focal point, while convex mirrors diverge light rays. They are both commonly used in various optical devices and have applications in fields like physics and imaging.
Convex lenses and convex mirrors both cause light rays that strike them to converge. This means they have the ability to focus light and create real or virtual images, depending on the object's position relative to the lens or mirror.