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A blue object would appear darker when viewed through a green filter because the green filter would absorb some of the blue light that the object reflects, resulting in a more subdued color.
When you look at a blue object through a red filter, the object will appear darker and possibly black because the red filter blocks out most of the blue light. The red filter only allows red light to pass through, which results in absorbed blue light and altered color perception.
Objects appear to change through a color filter because the filter only allows certain wavelengths of light to pass through while absorbing or blocking others. This selective transmission of light alters the color composition that reaches our eyes, leading to a change in the appearance of the object based on the colors that are filtered out or transmitted.
They prevent certain wavelengths (i.e. colours) from passing through. This means that you only see the colours that do pass through. If the object itself is coloured this may result in it becoming invisible if the filter is one that stops the object's colour from passing through it.
Different-colored filters only allow certain wavelengths of light to pass through while blocking others. When an object is viewed through a filter that transmits a particular color, only that color of light will reach our eyes, resulting in the object appearing that color. This phenomenon is due to the selective absorption and transmission of light by the filter and the object.
When looking at an orange object through a red filter, the object will appear darker and its hue will be altered to a more deep red or brownish color, as the filter absorbs most of the orange wavelengths of light that the object reflects.
A blue object would appear darker when viewed through a green filter because the green filter would absorb some of the blue light that the object reflects, resulting in a more subdued color.
Purple will the object be
green
When you look at a blue object through a red filter, the object will appear darker and possibly black because the red filter blocks out most of the blue light. The red filter only allows red light to pass through, which results in absorbed blue light and altered color perception.
Objects appear to change through a color filter because the filter only allows certain wavelengths of light to pass through while absorbing or blocking others. This selective transmission of light alters the color composition that reaches our eyes, leading to a change in the appearance of the object based on the colors that are filtered out or transmitted.
They prevent certain wavelengths (i.e. colours) from passing through. This means that you only see the colours that do pass through. If the object itself is coloured this may result in it becoming invisible if the filter is one that stops the object's colour from passing through it.
Different-colored filters only allow certain wavelengths of light to pass through while blocking others. When an object is viewed through a filter that transmits a particular color, only that color of light will reach our eyes, resulting in the object appearing that color. This phenomenon is due to the selective absorption and transmission of light by the filter and the object.
It will look black, or green, depending on the hue of the red. A green filter blocks the red light but no red object is reflecting solely in the red wavelengths, and any non-red light will appear green through the filter.
A green object viewed through a blue filter would appear darker or black because the blue filter would absorb most of the green light, allowing very little to pass through. This lack of green light reaching our eyes makes the object appear darker and alters its color.
The color of a translucent object, such as a filter, is determined by the wavelengths of light it absorbs and the wavelengths it transmits. The material's molecular structure affects how it interacts with light, allowing only certain colors to pass through while absorbing others. This selective absorption and transmission of light wavelengths give the object its perceived color.
When you look through a colored transparent or translucent object, you see the color of light that the object allows to pass through while absorbing other wavelengths. For example, a red filter will transmit red light and absorb other colors, resulting in a red hue. The perceived color is determined by the specific pigments or materials in the object and their interaction with light. Thus, the color you see is a combination of the transmitted light and the object's inherent color properties.