If an object is white in sunlight it will be green in green light.
A white object reflects all wavelengths (colors) of light that shine on it. If only green light shines on it, that color will be reflected and the object will look green.
A green object under green light would appear its original color and shade of green. When an object is illuminated by light of the same color, no new colors are absorbed or reflected, resulting in the object appearing unchanged.
A green object absorbs all colors of light except for green. When white light, which contains all colors of the visible spectrum, hits the object, the green pigment in the object absorbs all colors except green, which is reflected off the object. This reflected green light is what we perceive with our eyes, giving the object its green color.
When an object is in sunlight, it reflects some of the light that hits it. The color we see is the result of the reflected light waves. Different colors are absorbed by the object, and the color we see is the light waves that are reflected back to our eyes.
When light hits a green object, the object absorbs all the colors in the light spectrum except for green. Green is reflected off the object, which is why we perceive it as green. This reflection is what gives the object its color.
An opaque object that absorbs green light would appear magenta, which is the complementary color to green. This is because the object absorbs green light and reflects red and blue wavelengths, which combine to produce magenta.
A green object under green light would appear its original color and shade of green. When an object is illuminated by light of the same color, no new colors are absorbed or reflected, resulting in the object appearing unchanged.
Since an object is observed as the color(s) it reflects, a green object absorbs all colors and reflects green.
A green object absorbs all colors of light except for green. When white light, which contains all colors of the visible spectrum, hits the object, the green pigment in the object absorbs all colors except green, which is reflected off the object. This reflected green light is what we perceive with our eyes, giving the object its green color.
When an object is in sunlight, it reflects some of the light that hits it. The color we see is the result of the reflected light waves. Different colors are absorbed by the object, and the color we see is the light waves that are reflected back to our eyes.
When light hits a green object, the object absorbs all the colors in the light spectrum except for green. Green is reflected off the object, which is why we perceive it as green. This reflection is what gives the object its color.
An opaque object that absorbs green light would appear magenta, which is the complementary color to green. This is because the object absorbs green light and reflects red and blue wavelengths, which combine to produce magenta.
The green object will appear black because red light is absorbed by green objects.
A "green" object is called "green" because that's the only color of light it reflects, and it absorbs any other color. If orange light is shining on it, then there's no light for it to reflect, and it looks black to you.
When a blue light shines on a green object, the green object will absorb some of the blue light and reflect the remaining green light. This is because the green object absorbs light of complementary colors, in this case blue, and reflects light of its own color, green.
Since an object is observed as the color(s) it reflects, a green object absorbs all colors and reflects green.
When you shine a green light on a green object, the object will reflect the green light and appear brighter or more vivid in color. Green objects absorb most of the other colors of light and reflect green light, so they will be most visibly affected by green light.
The red object would appear black because it would not reflect any of the green light shining on it. Green light is the complementary color of red, meaning the object would absorb all the green light and not reflect any color back to our eyes.