What happens when you combine these wavelengths

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In summary, the conversation discusses the possibility of creating massive electromagnetic spikes by converging thousands of different transmitters with varying wavelengths in one spot. While mathematically this may result in gigantic spikes, it is questioned if this could work in the real world and potentially cause fusion or fission of nuclei. The conversation also mentions how the use of lasers in fusion experiments, with their same wavelength, may not create these spikes.
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Low level transmission of every electromagnetic wave starting from long -wave radio to gamma rays. Thousands of different transmitters not necessarilly being powerful at all, converging on one spot.

Wouldnt this create massive electromagnetic spikes here and there? Just as if you were to add a graph of Y=CosineX to a graph of Y=2CosineX. Add thousands of these of different wavelengths, mathematically you'd get GIGANTIC spikes here and there.

Mathematically, but would it work in the real world? Could that create GIGANTIC spikes of magentic and electrostatic forces, maybe big enough to spontaneously fuse or fission nuclei?




What I am getting at is that in attempting to create Fusion in a laboratory with lasers, they are all using the same wavelength, and therefore by using the same wavelength youll never get spikes in the graph, it'll always cancel each other out.
 
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The lasers being used in fusion experiments are pulsed. They don't interfere since they are aimed at different points on the surface of a ball of fusionable material.
 
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Combining multiple wavelengths of electromagnetic waves can indeed create massive spikes in energy at certain points. This phenomenon is known as constructive interference, where the waves align and amplify each other's energy. However, it is important to note that this is not a common occurrence in the natural world. In most cases, different wavelengths of electromagnetic waves do not converge on a single point in such a way that would create these spikes.

Additionally, the power and intensity of these waves would need to be extremely high in order for them to have any significant effect on matter, such as causing spontaneous fusion or fission of nuclei. In most cases, the energy from these waves would dissipate quickly and not have any noticeable impact on the surrounding environment.

Furthermore, as you mentioned, in fusion experiments using lasers, the wavelengths are carefully chosen and aligned to cancel each other out and create a consistent and controlled energy output. This is necessary in order to achieve the precise conditions needed for fusion reactions to occur.

In summary, while it is possible for combining different wavelengths of electromagnetic waves to create spikes in energy, it is not a common occurrence in nature and would require extremely high levels of energy to have any significant impact. In controlled experiments, such as fusion experiments, the wavelengths are carefully chosen and aligned to achieve a specific outcome.
 

Related to What happens when you combine these wavelengths

1. What happens when you combine red and blue wavelengths?

When you combine red and blue wavelengths, you get the color purple. This is because red and blue are at opposite ends of the visible light spectrum and when combined, they create a new color in between.

2. Can you combine different types of wavelengths, such as infrared and ultraviolet?

Yes, you can combine different types of wavelengths, but the resulting color may not be visible to the human eye. Infrared and ultraviolet wavelengths are outside of the visible light spectrum and are typically used in other scientific applications.

3. What happens when you combine all the colors of the rainbow?

When you combine all the colors of the rainbow, you get white light. This is known as additive color mixing and is the principle behind how computer and television screens create different colors.

4. Is there a limit to how many wavelengths can be combined?

Technically, there is no limit to how many wavelengths can be combined. However, as more and more wavelengths are added, the resulting color may become closer to white light and appear brighter.

5. What happens when you combine wavelengths that are not visible to the human eye?

When you combine wavelengths that are not visible to the human eye, such as infrared and ultraviolet, the resulting color may not be visible. However, these wavelengths may still have an effect, such as causing a chemical reaction or heating up a surface.

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