Converging. Tip: look at the pictures and read : http://en.wikipedia.org/wiki/Lens_(optics)
It should be parallel. Rays "parallel to the principle axis of a concave mirror converage at or near the focal point.
A convex mirror will always create a virtual image. It will also have a negative magnification. The passenger side mirror in every car is slightly convex. [The one with "Objects in Mirror are closer than they appear"] Also, anti-theft mirrors in convenience stores have these properties.
Light travelling through a concave lens will spread out. In most optical systems that use a concave lens, such as a telescope that needs to magnify the focal plane image, this is a desirable effect.
A converging mirror is also referred to as a concave mirror. Its reflecting surface curves inwards and usually forms a virtual image. Whereas, a diverging mirror's reflecting surface is curved outwards and can form both real and virtual images.
The mirror that causes parallel incident rays of light to converge at the focus is a concave mirror. This type of mirror is curved inward and has a reflective surface that causes light rays to converge towards a focal point when they strike the mirror parallel to its principal axis.
Concave mirrors cause light rays to diverge. This type of mirror is curved inward, which causes parallel light rays to converge and then diverge after reflection, creating a virtual image.
Light rays can converge or diverge based on the type of lens or mirror they pass through. Converging lenses and concave mirrors cause light rays to converge, focusing them at a single point known as the focal point. Diverging lenses and convex mirrors cause light rays to diverge, spreading them out.
False. Rays reflected from a convex mirror do not always converge. In the case of a convex mirror, the reflection causes the rays to diverge away from each other.
A concave mirror reflects light and curves inward. This type of mirror causes light rays to converge at a focal point, making it useful in applications such as telescopes and headlights.
Light rays reflect when they hit a concave mirror. The parallel rays of light converge at the focal point after reflection.
The point at which rays of light converge or appear to converge after being reflected or refracted by a mirror or lens is called the focal point.
The reflecting surface of a concave mirror curving inward towards the focal point causes light rays to converge after reflection, creating an image. The curvature determines the mirror's ability to converge or diverge light, impacting the image's properties like size, nature, and location.
A convex lens bulges outwards and causes light rays to meet or converge at a focal point. This type of lens causes parallel rays to be focused down to a point.
When light hits a concave mirror parallel to the principal axis, the reflected light rays converge at the focal point of the mirror.
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.
A concave mirror shows an enlarged image. This type of mirror curves inward and causes light rays to converge, resulting in an image that appears larger than the actual object.