Violet.
Blue has the greatest amount of energy in the visible spectrum due to its shorter wavelength. This high energy allows blue light to penetrate deeper into the atmosphere and scatter more easily, resulting in the sky appearing blue.
The amount of energy is directly proportional to the frequency of the light. Since violet has the greatest frequency, it also has the maximum energy and red has the least.
Light waves with the shortest wavelength carry the greatest amount of energy. This is because energy is inversely proportional to wavelength according to Planck's equation E = hc/λ, where E is energy, h is Planck's constant, c is the speed of light, and λ is wavelength.
Blue light will undergo the greatest amount of bending when passing through a lens due to its shorter wavelength compared to other colors. This causes blue light to refract more than red light, resulting in a larger angle of deviation.
Surfaces that are light in color and smooth in texture tend to reflect the greatest amount of insolation. Examples include snow, white sand, or light-colored rooftops, as they have higher albedo values and are able to bounce more sunlight back into the atmosphere.
Blue has the greatest amount of energy in the visible spectrum due to its shorter wavelength. This high energy allows blue light to penetrate deeper into the atmosphere and scatter more easily, resulting in the sky appearing blue.
The amount of energy is directly proportional to the frequency of the light. Since violet has the greatest frequency, it also has the maximum energy and red has the least.
red light has the least energy of any visible (to humans) color, and violet has the most energy. The amount of energy carried by light is directly proportional to its frequency; the higher the frequency, the more energetic the light is.
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Light waves with the shortest wavelength carry the greatest amount of energy. This is because energy is inversely proportional to wavelength according to Planck's equation E = hc/λ, where E is energy, h is Planck's constant, c is the speed of light, and λ is wavelength.
No, Colored light bulbs holds the same amount of energy a regular light bulb holds.
Blue light will undergo the greatest amount of bending when passing through a lens due to its shorter wavelength compared to other colors. This causes blue light to refract more than red light, resulting in a larger angle of deviation.
When an elctron is excited (has energy) it is extremely unstable, so it falls back to its previous energy level, and when it does this it releases energy, and this energy is viewed as wavelengths of light. So the color depends on the amount of energy the atom releases when it falls back to its lower energy level.
Surfaces that are light in color and smooth in texture tend to reflect the greatest amount of insolation. Examples include snow, white sand, or light-colored rooftops, as they have higher albedo values and are able to bounce more sunlight back into the atmosphere.
Yellow is the color that reflects the most amount of light, resulting in a light value.
LED lightbulbs use the least power for a specified amount of light, followed by fluorescent light; the old-fashioned incandescent lights waste the greatest amount of power.
The frequency of the light is the color and the energy is E=hf or Planck's Constant times the color or frequency.