This is the far infrared (if 1 x 10e-4 is in meters).
Radio waves
In the visible light spectrum, green light has a wavelength longer than blue light. Green light has a wavelength of around 500-570 nanometers, while blue light has a wavelength of around 450-495 nanometers. This difference in wavelength affects how each type of light is perceived by our eyes and interacts with objects.
Wavelength and frequency are key characteristics that determine the type of light. Wavelength determines the color of light - longer wavelengths correspond to red light, while shorter wavelengths correspond to blue light. Frequency determines the energy of the light - higher frequency light has greater energy. Together, wavelength and frequency determine the properties and behavior of light in different environments.
A wavelength carry energy. Strictly speaking, a wave carries energy. A wavelength is a property of a wave.
No, red light is not a gamma wave. Red light is a type of electromagnetic radiation with a longer wavelength than gamma rays. Gamma waves are a type of high-frequency electromagnetic radiation with very short wavelengths.
Radio waves
The longest wavelength / lowest frequency visible light is the red end of the spectrum. The shortest wavelength / highest frequency visible light is the violet end of the spectrum.
Infrared light has a wavelength just outside the visible red wavelength. This type of light is longer in wavelength than red light, making it invisible to the human eye but detectable by special cameras or sensors.
Wavelength
infrared
In the visible light spectrum, green light has a wavelength longer than blue light. Green light has a wavelength of around 500-570 nanometers, while blue light has a wavelength of around 450-495 nanometers. This difference in wavelength affects how each type of light is perceived by our eyes and interacts with objects.
Wavelength and frequency are key characteristics that determine the type of light. Wavelength determines the color of light - longer wavelengths correspond to red light, while shorter wavelengths correspond to blue light. Frequency determines the energy of the light - higher frequency light has greater energy. Together, wavelength and frequency determine the properties and behavior of light in different environments.
light is a form of energy that travels in a wavelength. It is the fastest type of energy and is very sensitive to the eye.
A fluorophore is a type of chromophore that can absorb light at one wavelength and emit light at a different wavelength. Chromophores, on the other hand, can absorb light but may not necessarily emit light.
A wavelength carry energy. Strictly speaking, a wave carries energy. A wavelength is a property of a wave.
The Wattage of a bulb tell you how much power (energy per second) you put into it. The energy will come out mostly as heat but obviously also light. The wavelength has the units of length and tells you what type and color of light it generates. The energy in each particle (photon) of light is dependent on the wavelength but the total power input isn't directly related. You can have both high and low input power infra red (long wavelength) and Ultraviolet (short wavelength) lamps.
Infrared radiation.