Blue light has more energy.
Using the formula:
photon energy (E) = Planck constant (h) * frequency (ƒ) Blue has a higher frequency than red. Since h is constant, E increases as ƒ increases.
Using the formula:
photon energy (E) = Planck constant (h) * speed of light (c) / wavelength (λ)
Blue has a shorter wavelength than red. Since h and care considered constant, E increases as λ decreases.
Blue light is diffracted more than red. The way I remember is by thinking about the waves being closer together in the blue light and knowing that each wave interacts with the whatever is causing the diffraction (grating or object). More waves in a given area means more interaction which means more diffraction.
The sky appears blue because air molecules scatter shorter-wavelength blue light more efficiently than other colors. This scattering effect causes the blue light to be more visible to our eyes, giving the sky its characteristic blue color.
Light blue color is created when the wavelength of blue light is reflected more than other wavelengths in the visible spectrum by an object's surface. This causes the eye to perceive a color that is a mixture of blue and white.
The hottest star is of blue color. The more the heat , the more is the excitement of electrons in star. This electrons vibrate with high frequency and emits light. Since the frequency is high, it appears as of blue color
A medium hot star typically appears white or blue in color. The color of a star is determined by its surface temperature, with hotter stars emitting more blue light compared to cooler stars which emit more red light.
Each photon of blue light has more energy than a photon of any other color, because the blue ones have the highest frequency.
Turquoise is a greenish-blue color, while light blue is a pale blue color. Turquoise is more vibrant and has more green undertones compared to light blue, which is a softer and more subdued shade of blue.
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.
no red uses more energy
Red does as it absorbs photons at blue end of the spectrum( the higher energy) and reflects light at the red end of the spectrum (a lower energy). While the blue light absorbs energy at the red end of the spectrum and reflects blue light
it depends on what kind of blue and green like a baby blue no a yellow-green no if its like a normal blue and green i think blue.
It is easier to see when it is yellow. It produces more heat energy and less light energy when it is blue. The yellow flame produces more light energy than heat energy. That makes it more visible
Intensity is a measure of the brightness or saturation of a color. Typically, brighter or more vibrant colors such as red, orange, and yellow are considered to have greater intensity compared to darker or more muted colors like blue, green, or purple.
The blue part of the spectrum has more energy than the red part.
It depends on the context. In terms of wavelength, green light typically has a higher frequency than yellow light because it has a shorter wavelength. However, in everyday life, yellow light is more commonly observed and used in various lighting sources, so it may have a higher frequency of occurrence.
Each color absorbs some heat energy, so a dark color would absorb more heat, as more colors are mixed in. A light color is giving off( reflecting) that energy, so it stays cooler. To what degree a color absorbs or reflects heat would make a good science experiment. How has to do with light itself, pure energy of all colors. White light is all colors, darkness the absence of color. White paint is the absence of color, black is all colors mixed. When you see a color, all colors of light BUT that color are being absorbed. You could truthfully say that the sky ISN'T blue....
light blue and white