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When light is reflected off a mirror, the frequency of the light does not change because reflection is a process that does not alter the properties of the light wave. The frequency of light corresponds to its color, and when we see our reflection in a mirror, we observe the same color that was emitted towards the mirror.
Yes, the light wave goes in the direction of the angle or reflection.
Visible light waves. When visible light waves encounter a shiny surface like a mirror, they are reflected in a predictable manner due to the smoothness of the mirror's surface, creating a clear reflection.
When a light wave strikes a mirror, it undergoes reflection, which means it bounces off the mirror's surface. The angle of reflection is equal to the angle of incidence. The mirror changes the direction of the light wave but does not change its speed or frequency.
When you shine a flashlight at a mirror, the ray of light that shines back at you is the ray of reflection, not incidence. The ray of incidence is the incoming ray of light that strikes the mirror. The ray of reflection is the outgoing ray that bounces off the mirror at an equal but opposite angle to the incident ray.
wave length
Direction. When a wave is reflected from a mirror, its direction changes according to the law of reflection, which states that the angle of incidence is equal to the angle of reflection.
When light is reflected off a mirror, the frequency of the light does not change because reflection is a process that does not alter the properties of the light wave. The frequency of light corresponds to its color, and when we see our reflection in a mirror, we observe the same color that was emitted towards the mirror.
Yes, the light wave goes in the direction of the angle or reflection.
Visible light waves. When visible light waves encounter a shiny surface like a mirror, they are reflected in a predictable manner due to the smoothness of the mirror's surface, creating a clear reflection.
amsw2. A mirror, provided it is smooth to below the wavelength of light, will reflect the light in the same way you can see a water wave be reflected from a wall.
amsw2. A mirror, provided it is smooth to below the wavelength of light, will reflect the light in the same way you can see a water wave be reflected from a wall.
When a light wave strikes a mirror, it undergoes reflection, which means it bounces off the mirror's surface. The angle of reflection is equal to the angle of incidence. The mirror changes the direction of the light wave but does not change its speed or frequency.
Light is an electromagnetic wave and as with all waves when they hit a smooth reflective surface such as a mirror they reflect which means they bounce off at 90 degrees. Light = incident ray Light reflected = reflective ray
When you shine a flashlight at a mirror, the ray of light that shines back at you is the ray of reflection, not incidence. The ray of incidence is the incoming ray of light that strikes the mirror. The ray of reflection is the outgoing ray that bounces off the mirror at an equal but opposite angle to the incident ray.
Yes, mechanical waves can be reflected. When a mechanical wave encounters a boundary or obstacle, it can bounce back in the opposite direction, similar to how light waves reflect off a mirror.
No, the greater the change in speed of light when it enters a new medium, the more it tends to be reflected at the interface between the two mediums. This reflection is known as refraction, and the angle of refraction is determined by the change in speed of light.