Yes. A ray of light striking a mirror leaves at a the same angle to the surface as it hits, but as measured from the opposite side of the surface. As measured from the original side, the exit angle is complementary (180 degrees minus the incident angle). For perpendicular rays, the light leaves perpendicularly, back in the direction it came from (180-90=90).
A flat mirror reflects light by following the law of reflection, where the angle of incidence is equal to the angle of reflection. Light rays hit the mirror, bounce off it, and create a reflected image.
reflect off the mirror's surface at the same angle they hit it, following the law of reflection. This means the light rays will bounce back in the opposite direction from which they came, allowing you to see the reflection of the light.
When light strikes a mirror, it reflects off the mirror surface, resulting in a "bounce" effect. The angle of incidence is equal to the angle of reflection based on the law of reflection. Mirrors do not absorb light like opaque materials and do not create shadows like opaque objects.
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.
Yes, a concave mirror obeys the law of reflection. The angle of incidence is equal to the angle of reflection when light rays hit the mirror surface and bounce off.
A flat mirror reflects light by following the law of reflection, where the angle of incidence is equal to the angle of reflection. Light rays hit the mirror, bounce off it, and create a reflected image.
It will bounce at the same angle that it came. \ / \__/
reflect off the mirror's surface at the same angle they hit it, following the law of reflection. This means the light rays will bounce back in the opposite direction from which they came, allowing you to see the reflection of the light.
When light strikes a mirror, it reflects off the mirror surface, resulting in a "bounce" effect. The angle of incidence is equal to the angle of reflection based on the law of reflection. Mirrors do not absorb light like opaque materials and do not create shadows like opaque objects.
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.
Yes, a concave mirror obeys the law of reflection. The angle of incidence is equal to the angle of reflection when light rays hit the mirror surface and bounce off.
Images are formed in a mirror through the reflection of light rays. When light rays hit a mirror, they bounce off at the same angle they hit the mirror, creating a virtual image that appears to be behind the mirror.
A mirror reflects light by causing the photons in the incident light to bounce off the smooth surface of the mirror. The angle at which the light hits the mirror is equal to the angle at which it reflects off, according to the law of reflection. This creates an image of the reflected object or scene.
When a light ray strikes a mirror, it reflects off the mirror's surface following the law of reflection, which states that the angle of incidence is equal to the angle of reflection. This causes the reflected ray to bounce off the mirror at the same angle as the incident ray, creating a clear image if the mirror is smooth and flat.
When light waves are reflected, they bounce back off a surface in a different direction. The angle at which the light approaches the surface (incident angle) will be equal to the angle at which it reflects off the surface (angle of reflection), according to the law of reflection. Mirror-like surfaces reflect light waves in a predictable manner, allowing us to see our reflection.
When a light ray strikes a flat mirror, it reflects off the mirror at the same angle it hit the mirror but in the opposite direction. This process is called specular reflection. The incident angle equals the reflected angle, and the image formed is virtual and upright.
When light waves hit a mirror, they bounce off at the same angle they hit the mirror's surface. This process, known as reflection, allows the light waves to maintain their original image as they bounce off the mirror and into your eyes. Your brain interprets the light waves that reach your eyes as an image, enabling you to see your reflection in the mirror.