False, diverge
Light rays striking a convex mirror are reflected away from each other due to the outward curve of the mirror. The reflected rays diverge and do not converge to a focal point, resulting in an upright and diminished virtual image.
Yes, but it can be hard to arrange. You need to set up a real image as a virtual object, and make the convex mirror image that. If the rays converge strongly enough, they will still converge after reflecting off the convex mirror.
Plane mirrors and convex mirrors are unable to form real images because they do not converge reflected light to a point. In a plane mirror, the reflected rays stay parallel, while in a convex mirror, the reflected rays diverge. This divergence or parallelism prevents the formation of a real image, which is the convergence of light rays to a point.
A concave mirror will make you appear larger. The mirror curves inward, causing light rays to converge and creating a magnified image of the object being reflected.
Light rays that hit a convex mirror are reflected and diverge. The reflected rays appear to originate from a point behind the mirror known as the focal point. This causes the image formed by a convex mirror to be virtual, upright, and diminished in size.
Light rays striking a convex mirror are reflected away from each other due to the outward curve of the mirror. The reflected rays diverge and do not converge to a focal point, resulting in an upright and diminished virtual image.
Yes, but it can be hard to arrange. You need to set up a real image as a virtual object, and make the convex mirror image that. If the rays converge strongly enough, they will still converge after reflecting off the convex mirror.
Plane mirrors and convex mirrors are unable to form real images because they do not converge reflected light to a point. In a plane mirror, the reflected rays stay parallel, while in a convex mirror, the reflected rays diverge. This divergence or parallelism prevents the formation of a real image, which is the convergence of light rays to a point.
A concave mirror will make you appear larger. The mirror curves inward, causing light rays to converge and creating a magnified image of the object being reflected.
The principal focus of a convex mirror is the point where light rays parallel to the mirror's principal axis appear to converge after reflection. This point is located behind the mirror at a distance equal to half the radius of curvature of the mirror.
Light rays that hit a convex mirror are reflected and diverge. The reflected rays appear to originate from a point behind the mirror known as the focal point. This causes the image formed by a convex mirror to be virtual, upright, and diminished in size.
A convex mirror bulges out. A concave mirror curves inward.For a convex mirror, light rays are reflected to meet at a point, while, for a concave mirror, light rays seem to be reflected from a point. If the incident rays were paraxial, the reflected rays are reflected to meet at, or appear to be reflected to a point referred to as the focal point of the lens. For a convex mirror, the focal point is real, while, that of a concave lens is virtual.
A concave mirror causes light to converge to a focal point, while a convex mirror causes light to diverge and spread out.
The focal point of a convex mirror is located behind the mirror. It is the point where parallel light rays appear to converge after reflecting off the mirror's surface.
yes it always produces a virtual image. it is always erect. Its size is always diminshed. Distance from the mirror is always between Focus and Pole
A convex mirror always forms virtual, erect, and diminished images irrespective of the object's position. This is because incident rays diverge upon reflection, causing them to appear to converge at a point behind the mirror. As a result, the image in a convex mirror doesn't flip because it is always virtual and appears behind the mirror.
Images in a convex mirror appear smaller, virtual, and upright. The reflected image is located behind the mirror and its size depends on the object's distance from the mirror.