infrared
Your eyes can detect visible light, which is a form of electromagnetic radiation that falls within a specific range of wavelengths. This is why your eyes are sensitive to colors and brightness levels in the environment.
Infrared radiation can be detected using infrared sensors or cameras that are sensitive to the specific wavelength ranges of infrared light. These sensors can convert the infrared radiation into an electrical signal that can be processed to create images or detect objects that emit infrared radiation.
Some examples of wavelength questions that can be used to study the properties of electromagnetic radiation include: How does the wavelength of light affect its color? What is the relationship between wavelength and energy in the electromagnetic spectrum? How does the wavelength of a radio wave affect its ability to transmit information? How does the wavelength of ultraviolet radiation impact its effects on living organisms? How does the wavelength of infrared radiation influence its ability to detect heat signatures?
Radiation is invisible to the human eye because it has a wavelength that is outside the visible spectrum. This means that the energy emitted by radiation is not within the range that our eyes can detect, making it invisible to us.
The human eye can detect electromagnetic radiation within the visible light spectrum, which ranges from approximately 400 to 700 nanometers in wavelength. This corresponds to the colors of the rainbow, including violet, blue, green, yellow, orange, and red.
A human eye can detect electromagnetic radiation in the visible light spectrum, which ranges from about 400 to 700 nanometers in wavelength. This encompasses colors ranging from violet to red.
The human eye can only detect electromagnetic radiation in the visible spectrum, Typically, wavelengths of 390 to 750 nm fall within the visible spectrum. Radiation with these wavelengths are called visible light or simply light.
Infrared radiation has longer wavelengths than the human eye can detect. These wavelengths are longer than those of visible light, allowing infrared radiation to be used for thermal imaging and night vision technology.
By analogy with the spectrum of visible light from violet to red, with colours ordered in increasing wavelength, the electromagnetic spectrum is the collection of all types of electromagnetic radiation ordered by increasing wavelength. EM radiation that we can detect runs from ultra-long wavelength radio waves used to communicate with submarines, through long-wave, short-wave, VHF and UHF radio to microwaves, infra-red (heat radiation), visible light, UV, X-rays and gamma rays.
The answer depends on what "IT" is and what sort of radiation it is meant to detect!
Astronomers discover black holes in the universe by observing the effects they have on nearby objects, such as stars and gas. They use telescopes to detect X-rays and other forms of radiation emitted by black holes, as well as studying the gravitational influence they have on surrounding matter.
Firstly, the "naked eye" can't detect the wavelength of any kind of electromagnetic radiation outside a very small window of frequencies that correspond to visible light. And secondly, Planck's constant is so small that the de Broglie wavelength of any macroscopic particle is infinitesimal.