# Does the electromagnetic spectrum end?

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The electromagnetic spectrum has no theoretical limit at either end. … At the other end of the spectrum, it takes higher energies to create higher frequencies (shorter wavelengths).

## Is the electromagnetic spectrum infinite?

The full set of EM radiation is called the electromagnetic spectrum. To simplify things the EM spectrum divided into sections (such as radio, microwave, infrared, visible, ultraviolet, X-rays and gamma-rays). The EM spectrum is continuous (has no gaps) and infinite.

## Is there anything beyond the electromagnetic spectrum?

These represent the outer limits of the light that we can see, but the electromagnetic spectrum continues far beyond these narrow confines. At wavelengths slightly longer than red, we get infrared radiation, and beyond that we get terahertz radiation and then microwaves.

## How far does the electromagnetic spectrum go?

Most of the radio part of the EM spectrum falls in the range from about 1 cm to 1 km, which is 30 gigahertz (GHz) to 300 kilohertz (kHz) in frequencies. The radio is a very broad part of the EM spectrum. Infrared and optical astronomers generally use wavelength.

## Which two waves lie at the end of the visible spectrum?

Radio waves and microwaves lie at the longer end of the spectrum of electromagnetic energy (kilometers and meters to centimeters and milimeters), while x rays and gamma rays have very short wavelengths (billionths or trillionths of a meter).

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## Can a wave have 0 wavelength?

So “no”. In case of photon’s wave nature they have definite wavelengths for definite energies. If wavelength become zero then its energy become infinite which is impossible. Secondly, every wave must have wavelength which defines its motion.

## How much of the spectrum can humans see?

The entire rainbow of radiation observable to the human eye only makes up a tiny portion of the electromagnetic spectrum – about 0.0035 percent. This range of wavelengths is known as visible light.

## What if we could see the entire electromagnetic spectrum?

Ultimately, if you could see all wavelengths simultaneously, there would be so much light bouncing about that you wouldn’t see anything. Or rather, you would see everything and nothing simultaneously. The excess of light would just leave everything in a senseless glow.