Different Wavelengths of Light in Particle View

In summary, the conversation discusses the concept of light being viewed as both a wave and a particle. It is mentioned that different shades of light can be explained through wavelengths when viewed as a wave, but there is curiosity about how different frequencies can be possible when viewing light as photons. The idea is presented that light must be viewed as both a wave and a particle, as the energy of a photon cannot be explained using a strictly particle perspective. It is also mentioned that light has its own unique properties that encompass both wave and particle characteristics.
  • #1
Vorde
788
0
I completely understand how different shades of light (red, blue, UV, Radio etc...) can be explained when light is viewed as a wave (different wavelengths etc..). However I am curious as to how different frequencies of light are possible when light is considered as photons instead of a wave.



I apologize if this is in the wrong category, I was unsure where to post this.
 
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  • #2
Vorde said:
I completely understand how different shades of light (red, blue, UV, Radio etc...) can be explained when light is viewed as a wave (different wavelengths etc..). However I am curious as to how different frequencies of light are possible when light is considered as photons instead of a wave.



I apologize if this is in the wrong category, I was unsure where to post this.

The thing is, you CANNOT look at light as either a particle or a wave, you MUST look at it as both. The energy of a photon cannot be explained using a strictly particle view. This is because the photon always travels at c. Since it can never slow down then it would never have any difference in energies. Only using frequency and wavelike properties can this be explained.
 
  • #3
I agree with Drakkith. You can't take light and try to put in either the "wave" container or the "particle" container. You have to say that light is its own container and put the properties of both wave and particle in it.
 

FAQ: Different Wavelengths of Light in Particle View

What are wavelengths of light in particle view?

Wavelengths of light in particle view refer to the different ranges of electromagnetic radiation that can be observed and measured by scientists. These wavelengths range from radio waves with the longest wavelength to gamma rays with the shortest wavelength.

How are different wavelengths of light measured in particle view?

Different wavelengths of light are measured in particle view using the unit of measurement called nanometers (nm). This unit measures the distance between two consecutive peaks or troughs of a wave, allowing scientists to determine the specific wavelength of a particular type of light.

What is the relationship between wavelength and energy in particle view?

In particle view, there is an inverse relationship between wavelength and energy. This means that shorter wavelengths have higher energy, while longer wavelengths have lower energy. This is because shorter wavelengths have more frequent wave cycles, which results in a higher energy output.

How do different wavelengths of light affect the color we see?

The different wavelengths of light affect the color we see because each wavelength corresponds to a different color on the visible light spectrum. For example, red light has a longer wavelength and is seen as red, while blue light has a shorter wavelength and is seen as blue. The combination of these wavelengths creates the different colors we see in the world around us.

What are some practical applications of understanding different wavelengths of light in particle view?

Understanding different wavelengths of light in particle view has numerous practical applications. For example, it helps scientists in fields such as astronomy and physics to study and analyze the properties of different types of light. It also plays a crucial role in technologies such as lasers, fiber optics, and medical imaging, where precise measurements of light wavelengths are necessary for their functioning.

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