a concarve lense
a concave lens diverges the light ray travelling in a straight parallel path.
The difference between the two is that once the light passes through the concave lens it diverges, and the rays are refracted outward, and never meet a focal point. Then there is the parallel light rays that bounce off the curved surface of a concave mirror and then meet a single point ( focal point).
A diverging lens is a lens that diverges rays of light that are traveling parallel to its principal axis, so diverged light is light that had it's direction altered
A convex lens acts as a diverging lens when the light passing through it diverges rather than converges. This typically occurs when the object is located very close to the lens or when the light rays are not parallel to begin with.
A lens brings diverging light rays to parallel tracks by refracting the light rays as they pass through the lens. The shape of the lens causes the light rays to converge and then diverge again, ultimately causing them to travel in parallel paths.
Concave lens would diverge the rays.
a concave lens diverges the light ray travelling in a straight parallel path.
The difference between the two is that once the light passes through the concave lens it diverges, and the rays are refracted outward, and never meet a focal point. Then there is the parallel light rays that bounce off the curved surface of a concave mirror and then meet a single point ( focal point).
A diverging lens is a lens that diverges rays of light that are traveling parallel to its principal axis, so diverged light is light that had it's direction altered
A convex lens acts as a diverging lens when the light passing through it diverges rather than converges. This typically occurs when the object is located very close to the lens or when the light rays are not parallel to begin with.
If passed through a convex lense, then yes the parallel rays will meet.
Light from stars arrives at a telescope as parallel rays because stars are very far away compared to the size of a telescope's aperture. This distance makes the light rays effectively parallel when they reach the telescope, similar to how sunlight reaches Earth as parallel rays.
A lens brings diverging light rays to parallel tracks by refracting the light rays as they pass through the lens. The shape of the lens causes the light rays to converge and then diverge again, ultimately causing them to travel in parallel paths.
No, a periscope uses mirrors to reflect light and change the direction of the image, not a concave lens which diverges light rays.
The standard focal length of a concave lens is negative, as it diverges light. This focal length is typically measured in millimeters and represents the distance from the lens to the focal point where parallel light rays converge after passing through the lens.
In a parallel beam of light, the rays stay parallel to each other as they travel through space. This means that they do not converge or diverge, maintaining their original direction.
Yes, a convex mirror is also known as a diverging mirror because it diverges light rays that fall on it, causing them to spread out. This type of mirror forms virtual, upright, and smaller images of objects placed in front of it.