theyre not
The color of a mirror does not affect its reflective properties. Mirrors reflect light regardless of their color because they have a smooth and reflective surface. The color of a mirror is determined by the material used to coat its surface, but it does not impact its ability to reflect light.
An incident light ray is a light ray that travels toward a reflective surface. When this ray hits the surface, it may be reflected, refracted, or absorbed, depending on the properties of the surface and the angle at which the light ray strikes it.
Some surfaces are more reflective than others because of their smoothness and the material they are made of. A smooth surface allows light to bounce off it more easily, creating a reflective effect. Additionally, materials with higher reflectivity properties, such as metals, will reflect more light compared to materials with lower reflectivity properties, such as wood.
A reflective surface is smooth and flat, allowing for the majority of light to be reflected off of it. It has a high level of reflectivity, which means it bounces light rays back in a predictable manner. The surface must also be opaque to prevent light from passing through.
It travel in a higher speed than sound
No, bromine is not reflective. It is a dark reddish-brown liquid at room temperature and does not have any reflective properties.
No, reflective materials require light in order to reflect. Without light, the reflective material will not be able to bounce light off its surface and appear reflective.
Yes, gold is shiny because it is highly reflective to light. Its shiny appearance is due to its properties that make it an excellent conductor of light.
If you are talking about the opposite of dull in elements, the answer is luster
White is the most reflective color of light. It reflects all the wavelengths of visible light, making it appear bright and highly reflective.
High energy density. Low dispersion.
Sometimes referred to as a "flecky board", this is a specially-designed reflective surface which is usually used to act as a secondary light source. It is particularly useful as a fill light when working in strong sunlight.