No. I don't honestly know why just that it doesn't because my teacher said so but she could be wrong. Some teachers can be pretty stupid.
Yes of course. Don't spew nonsense. It's a LAW. All you have to do to prove this point, is to draw a semi-major axis, aka tangent to any point on the curved surface, draw the normal, then reflect the incoming ray. If you do this for parallel rays coming onto the curved surface, you'll realize that the reflected rays converge at one point, the focal point, because the curved mirror acts as a lens as well.
Glass and perspex prisms, and mirrors can change the path of light. Try to look up the law of reflection on google, it should be a great help!
Yes. This can be proven with the Law of Reflection. What this states is: the angle of incidence equals the angle of reflexion. For information about the law of reflection you can visit this site and review the diagrams and notes: http://www.glenbrook.k12.il.us/gbssci/phys/class/refln/u13l1c.html
In doesn't affect how sad you are :)
what is the parallel light rays reflect off each mirror below looks like with a ruler
There are 2 major statements regarding the laws of reflection:- 1. The angle of incidence = angle of reflection OR theta 1 = theta 2 and 2. The incident ray, the reflected ray and the normal (line perpendicular to the plane of the mirror/ reflective surface) all lie in the same plane. Hope this helps. If more information is required, you can email physicsisland@hotmail.com
Yes, curved mirrors follow the law of reflection. The angle of incidence is equal to the angle of reflection at any point on the mirror's surface.
The law of reflection is valid for any ray of light. So it is also valid for curved and flat surfaces. For curved surfaces, the normal is taken as the normal to the tangent of the point where the light ray hits the surface.
they are made out of reflective material, and just reflect in a different direction
Mirrors work by reflecting light. When light hits a mirror, it bounces off at the same angle it came in at, following the law of reflection. This creates an image of the object being reflected. Mirrors can be flat or curved, which affects how the image appears.
Yes, both convex and concave mirrors obey the law of reflection, which states that the angle of incidence is equal to the angle of reflection. This law applies to all types of mirrors, ensuring that light rays reflect predictably off the mirror's surface.
Yes, both convex and concave mirrors obey the law of reflection. The law of reflection states that the angle of incidence is equal to the angle of reflection. This means that light rays that strike a convex or concave mirror will follow this law and reflect off the mirror surface accordingly.
The property is known as specular reflection, where light rays reflect off a mirror in a way that follows the law of reflection, meaning the angle of incidence equals the angle of reflection. This property of mirrors ensures that the reflection is sharp and clear.
yes it does, light travels in all directions.
Any ray that travels parallel to the principal axis of a concave mirror will reflect through the mirror's focus after reflection. This is known as the "law of reflection" for concave mirrors.
Lasers reflect off mirrors by following the law of reflection, which states that the angle of incidence equals the angle of reflection. When a laser beam hits a mirror, it bounces off at the same angle it hit the mirror, maintaining its direction and intensity.
Normal reflection refers to the process where light rays hit a smooth surface and bounce off at the same angle they struck the surface, following the law of reflection. This phenomenon is commonly observed in mirrors, where the angle of incidence equals the angle of reflection.
Mirrors demonstrate the property of reflection, where light bounces off the mirror surface according to the law of reflection. They also show that light travels in straight lines and can change direction when it strikes a reflective surface. Additionally, mirrors can produce images by reflecting light in a way that preserves the orientation and size of objects.