Since the apple is green, it would absorb any light that is not the same color as the apple. In this instance, the apple would appear very dark or even black since there is no green in the red light you are shining on the apple.
A popular science experiment involves a shoe box, a piece of colored plastic or glass, a few objects (such as the apple), and a flashlight. If a red apple is being used with a red filter, the apple would appear to be a bright red since the apple is also red. The red filter allows the red color being reflected off the apple to pass through. Switch the filter to a green one, and the apple appears black since the filter effectively filters out all colors except green.
The green apple absorbs most colors of light but reflects green light. When white light shines on the apple, its surface absorbs all colors except green, which gets reflected back to our eyes, making the apple appear green.
The red light is absorbed by the red apple, while the green light is reflected. This is because the red apple appears red because it absorbs all colors of light except red, which it reflects.
A purely green apple would look black under purely red light. If the apple were not purely green, it would look dark red. If the light were not purely red, the apple would look dark green. This is because red light does not reflect off purely green objects, and it is the reflected light which we see.
When a green apple appears black under a red light, it is because the red light does not contain wavelengths that correspond to the green color of the apple. The red light is absorbed by the apple, causing it to appear black as there is no green light being reflected off the surface to be perceived by our eyes. Each color of light corresponds to a specific wavelength, and when the light's wavelength does not match the object's color, the object will appear different.
The difference in color between bright green light and dim red light is due to variations in their respective wavelengths. Bright green light has a shorter wavelength, which corresponds to higher energy and frequency, resulting in the perception of a vibrant green color. In contrast, dim red light has a longer wavelength, lower energy, and frequency, leading to the perception of a subdued red hue.
Apple green is a particular bright shade of green with a light tint of yellow, like the colour of a green apple.
a shade of green, i think like a bright, light shade a shade of green, i think like a bright, light shade a shade of green, i think like a bright, light shade
The green apple absorbs most colors of light but reflects green light. When white light shines on the apple, its surface absorbs all colors except green, which gets reflected back to our eyes, making the apple appear green.
A green apple appears green under white light because its surface absorbs all colors of light except green. Green light is reflected off the apple's surface and then detected by our eyes, making it appear green.
Bright Light Green
The red light is absorbed by the red apple, while the green light is reflected. This is because the red apple appears red because it absorbs all colors of light except red, which it reflects.
A purely green apple would look black under purely red light. If the apple were not purely green, it would look dark red. If the light were not purely red, the apple would look dark green. This is because red light does not reflect off purely green objects, and it is the reflected light which we see.
It will be black because there may not be any green light reflecting the green apple so if theres no light then it will become black
When a green apple appears black under a red light, it is because the red light does not contain wavelengths that correspond to the green color of the apple. The red light is absorbed by the apple, causing it to appear black as there is no green light being reflected off the surface to be perceived by our eyes. Each color of light corresponds to a specific wavelength, and when the light's wavelength does not match the object's color, the object will appear different.
The bright green light has a higher frequency (shorter wavelength) and a smaller amplitude than the dim red light.
The difference in color between bright green light and dim red light is due to variations in their respective wavelengths. Bright green light has a shorter wavelength, which corresponds to higher energy and frequency, resulting in the perception of a vibrant green color. In contrast, dim red light has a longer wavelength, lower energy, and frequency, leading to the perception of a subdued red hue.
bright yellow or green