they are reflected at an equal opposing angle on a first-surface mirror. on a second surface (bathroom mirror) they are also reflected, but some are absorbed/disbursed by impurities and inconsistencies in the glass.
The light from the sun travels in a straight line, and we can assume the light rays to be parellel. The angle of incidence on the earths rounded surface depends on where you are on the earth and what time it is. Mid-day on the equator and the rays would hit the ground straight on. Further to the north or south, or later/earlier in the day and the light rays would hit at more of angle. The rays would also have to penitrate more of the earths atmosphere as the angle increases, which takes more `strength` out of the sun.
The angle does not hit anything! A ray of light hits a mirror or glass block and the angle that the ray makes with the vertical at the point of contact is the angle of incidence.
Light travels in straight lines and therefore some will hit the tree. Where this happens a shadow (absence of light) is created behind the tree.
Probably nothing but if the kite happens to hit an are of the wire which is unprotected you may get a shock.
When light rays hit the surface of a flat mirror, they are reflected back at the same angle as they approached the mirror. This is known as the law of reflection. The image seen in the mirror is a virtual image that appears to be the same distance behind the mirror as the object is in front of it.
Light rays reflect when they hit a concave mirror. The parallel rays of light converge at the focal point after reflection.
Light rays reflect when they hit a convex mirror. The rays bounce off the mirror and converge to form a virtual image behind 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.
Parallel rays of light that reflect from a concave mirror will converge at a focal point after reflection. The focal point is located on the principal axis of the mirror and is the point where all reflected rays meet after reflection.
When light rays hit the surface of a mirror, they are reflected back at the same angle they hit the mirror. This is known as the law of reflection. The angle of incidence (the angle at which the light ray hits the mirror) is equal to the angle of reflection (the angle at which the light ray is reflected off the mirror).
When a light ray hits the surface of a convex mirror, it reflects off the mirror divergently. This means that the reflected light rays appear to originate from a virtual focal point behind the mirror, creating an upright and smaller image of the object.
Parallel light rays hitting a concave mirror will converge to a single focal point after reflection, due to the mirror's inward or converging shape. The focal point is located on the principal axis of the mirror, halfway between the mirror's center and the vertex. This property of concave mirrors is used in applications like focusing light in telescopes and for creating images in reflective devices.
they are reflected at an equal opposing angle on a first-surface mirror. on a second surface (bathroom mirror) they are also reflected, but some are absorbed/disbursed by impurities and inconsistencies in the glass.
A mirror reflects an image due to the law of reflection, which states that the angle of incidence of light hitting the mirror is equal to the angle of reflection. When light rays from an object hit a mirror, they bounce off it and form an image by preserving the direction of the light rays.
A mirror reflects light rays, causing them to change direction. When parallel light rays hit the mirror, they are reflected and converge at a point known as the focal point, creating an image. The image formed is virtual and laterally inverted, appearing behind the mirror.
Convex mirrors cause light rays to diverge, or spread out, when they hit the mirror's surface. This results in the formation of a virtual, upright, and smaller image of the object being reflected. The image appears to be behind the mirror.