The wavelength of light in water can be calculated using the formula: λ_w = λ_a / n, where λ_w is the wavelength in water, λ_a is the wavelength in air, and n is the refractive index of water (approximately 1.33). Plugging in the values, the wavelength of light in water would be around 473nm.
In the ocean, blue light penetrates the deepest due to its shorter wavelength and higher energy compared to longer-wavelength light. Blue light can travel further through water before being absorbed, making it the dominant color at greater depths.
No, speed is not directly related to wavelength in the context of light. In a vacuum, all wavelengths of light travel at the speed of light (approximately 299,792,458 meters per second). However, in a medium such as glass or water, different wavelengths of light travel at different speeds due to their interaction with the medium.
Red light has the longest wavelength among the visible spectrum because it has the lowest frequency and energy. The longer wavelength of red light causes it to scatter less than other colors, giving it the ability to travel farther through the atmosphere and water.
The wavelength of the water wave that measures 2 meters is 3,076,923 times bigger than the wavelength of red light that is 650 nanometers.
According to the light spectrum, water should travel through a more violet coloured water the fastest. The speed of light through a medium is not governed by its wavelength, so colour is not a factor.
The wavelength of light in water can be calculated using the formula: λ_w = λ_a / n, where λ_w is the wavelength in water, λ_a is the wavelength in air, and n is the refractive index of water (approximately 1.33). Plugging in the values, the wavelength of light in water would be around 473nm.
In the ocean, blue light penetrates the deepest due to its shorter wavelength and higher energy compared to longer-wavelength light. Blue light can travel further through water before being absorbed, making it the dominant color at greater depths.
No, speed is not directly related to wavelength in the context of light. In a vacuum, all wavelengths of light travel at the speed of light (approximately 299,792,458 meters per second). However, in a medium such as glass or water, different wavelengths of light travel at different speeds due to their interaction with the medium.
Red light has the longest wavelength among the visible spectrum because it has the lowest frequency and energy. The longer wavelength of red light causes it to scatter less than other colors, giving it the ability to travel farther through the atmosphere and water.
When light passes from air into water, its velocity decreases due to the higher refractive index of water. This results in the light's wavelength also decreasing.
Not very far. The charge the lightning carries is disbursed in a short distance in water, and a shorter distance still in salt water. A few meters is about all that is required for the current density to drop to some small value. A few tens of meters maximum.
The wavelength of the water wave that measures 2 meters is 3,076,923 times bigger than the wavelength of red light that is 650 nanometers.
The wavelength of yellow sodium light in water is approximately 589 nanometers. This specific wavelength is characteristic of the spectral emission line of sodium when it is viewed through water.
light waves do not require a medium to travel through, unlike water and sound waves which both need a medium (water and air, respectively). Light waves are electromagnetic in nature and can travel through a vacuum. They have different wave properties such as wavelength, frequency, and speed compared to water and sound waves.
Light waves can travel through different mediums, such as air, water, and glass. The speed and direction of light waves can change depending on the medium they are traveling through due to factors like refraction and reflection. The wavelength and frequency of light waves remain constant regardless of the medium they are traveling through.
The wavelength of the water wave that measures in meters is much bigger than the wavelength of the red light which is 650 nm. The difference is approximately 6 orders of magnitude, as 1 meter is equivalent to 1,000,000,000 nm.