Can Electromagnetic Frequencies Affect Molecule Resonance and Breakdown?

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Discussion Overview

The discussion revolves around the effects of electromagnetic frequencies on molecular resonance and breakdown, particularly in the context of a saline solution containing two molecules. Participants explore theoretical implications, potential resonant effects, and the relationship between frequency and molecular response.

Discussion Character

  • Exploratory
  • Technical explanation
  • Debate/contested
  • Mathematical reasoning

Main Points Raised

  • One participant proposes a scenario where an electromagnetic source at frequency F could break apart molecule A by resonating molecule B.
  • Several participants argue that at a frequency of 20,000F, nothing would happen, suggesting that it is the wrong frequency for resonance.
  • Another participant questions whether a high harmonic of the original frequency could still have an effect, despite being at a different frequency.
  • One participant discusses the concept of dielectric effects and how molecular response times relate to frequency, suggesting that increasing frequency too much would lead to a loss of resonance.
  • Another participant uses an analogy involving jerking a friend to illustrate how increasing frequency affects resonance and response time.
  • There is a discussion about the implications of shifting frequencies significantly within the electromagnetic spectrum, particularly the transition from visible light to x-rays and gamma rays.
  • One participant suggests that a process at a frequency of 20,000F might simply take longer, proposing a time scale based on the original frequency.

Areas of Agreement / Disagreement

Participants generally disagree on the effects of using a frequency of 20,000F, with some asserting that it would have no effect while others speculate about potential outcomes. The discussion remains unresolved regarding the actual impact of such a frequency on molecular interactions.

Contextual Notes

Participants express uncertainty about the specific saline solution being discussed and the assumptions underlying the proposed scenarios. The discussion includes various interpretations of resonance and the effects of frequency changes, which are not fully resolved.

JKQandA
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If I had a saline solution of molecule A and B which when targetd by an electromagnetic source of frequncy F, proceeded to break apart molecule A by resonating molecule B. What would happen if the electromgnatic source was 20,000F? (All solutions welcome...particularly mathematical ones!)
 
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Absolutely nothing. You'd be at the wrong frequency.
 
MagnetDave said:
Absolutely nothing. You'd be at the wrong frequency.

Even though it would still be a harmonic (although very high harmonic) of the previous wave?
 
MagnetDave said:
Absolutely nothing. You'd be at the wrong frequency.

Can you actually prove your statement or are you just geussing?
 
Given that you have asked such a broad question, one can hardly "prove" anything. However, let's just think through the question, shall we?

We are getting some kind of resonant effect at frequency f. Let's suppose it's a dielectric effect (given what you're described, that seems most appropriate). This means something in molecules A and B is polarizing in response to the oncoming wave and happens to have a natural response time that constructively interferes with the stimulating wave. All good so far?

So how does this natural response time arise? Did Zeus come down from Olympus with a lightning bolt and deem this molecule to have a response frequency of 10Hz? No, there is a physical reason for it. Let's suppose the mechanism is "polar bond reorientation." It responds with a given frequency because the bond has an associated charge q and has to move an associated mass m. Bust out your Newton's second law, and your Lorentz force equation, you an idea how much polarization you expect form the wave. Figured out what the mobility of charge is, and Bob's your auntie.

Now, imagine you double the frequency of the wave: Rather than toss your polarization perfectly from one extreme to another, you are catching halfway, slamming the brakes, and reversing course. Is there a resonance effect here? No. In fact, what you see is that in fairly short order (less than a decade) you see the resonance die out and the effect that you were observing utterly disappear. This is because you are applying the energy to the material faster than it can respond. There's a nice schematic curve of the concept here:

http://en.wikipedia.org/wiki/Dielectric_spectroscopy

So, you are observing some dielectric effect, and then you want to shift the frequency FIVE decades away. Imagine you have a friend by the arm, and you start jerking him back and forth at 1Hz, slinging him annoyingly about the place. Then, you start jerking him 20,000 times faster with the exact same force. At best, your are going to give him a hell of an Indian burn - you're certainly not going to turn him into chunky salsa. Granted, the analogy is sloppy but the effect holds.

Think of it a different way: Let's suppose you have green light. If you go to 20,000f of green light, you are putting yourself in the region between x-rays and gamma rays. Or, if you go from green DOWN to 1/20000f, you are into radio waves. Do you really expect to see some commonality of effects here? 20000f is a HUGE shift in the electromagnetic spectrum, and the practicalities change enormously.

If it's a resonant cavity effect, where you are just reflecting frequency back and forth, I can just tell you from an engineering perspective, that doesn't work either. At the 20,000th mode, you have too many other effects in the system causing loss and noise - resonance doesn't matter then. Practically speaking, if you get more than about 8-10 modes out of a cavity, you're doing pretty well.

Now, let me ask you: What saline solution are you proposing to do this on?
 
MagnetDave said:
Now, let me ask you: What saline solution are you proposing to do this on?

Regular Saltwater more specifically seawater.
 
MagnetDave said:
Think of it a different way: Let's suppose you have green light. If you go to 20,000f of green light, you are putting yourself in the region between x-rays and gamma rays. Or, if you go from green DOWN to 1/20000f, you are into radio waves. Do you really expect to see some commonality of effects here? 20000f is a HUGE shift in the electromagnetic spectrum, and the practicalities change enormously.

Absolutley. Given no other external electromagnetic sources are interfering.
 
Would'nt the process just take 20,000 times longer than usual. If at frequency F it took a second, then how about at frequency 20,000 F it could take two weeks?
 

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