Can coil machines damage healthy tissue?
This is a question I’m asked a lot. It’s a good question. I go into a lot of detail in my post about Resonance, but for those not wishing to delve into all the scientific principles behind coiling, this post is for you. To demonstrate the safety of using a coil machine, we’re going to look at its similarities with an MRI machine.
An MRI scanner and a coil machine have two things in common. Both generate a magnetic field, and both expose the body to frequencies.
THE SHORT ANSWER
The magnetic field strength in an MRI scanner is much, much stronger than the field generated by the ESP101. In an MRI it’s around 30,000 Gauss. The magnetic field strength generated by the ESP101 is 400 Gauss. For reference, the magnetic field strength of the earth is about 50 Gauss.
The frequencies you’re exposed to in an MRI scanner are around 10 million hertz. The ESP101 works with frequencies up to 2000 hertz. For reference, you’d be exposed to around 20,000 hertz by being near a decent sound system at a concert.
Given that human beings can be in an MRI scanner for long periods of time, and attend concerts and festivals without experiencing tissue damage, it shows that the magnetic field strength and frequencies used by the ESP101 cannot damage healthy tissue.
The magnetic field strength and frequencies that the ESP101 use are carefully selected to target the microorganisms responsible for Lyme Disease. Remember: the smaller and simpler the structure, the less energy needed to resonate it. It doesn’t get much smaller and simpler than bacteria! Surrounding tissues just won’t be affected. It is also worth mentioning that studies have investigated the effect of magnetic fields on the human body – and have found no risk.
THE MORE DETAILED ANSWER
Most of us will have either had an MRI scan, or know what one is. It’s an extremely useful diagnostic tool that gives the doctor a view inside your body. Bones, organs and other tissues are all visible on the scan. You lay down on the table, get moved into the tube and are told to stay very still. When the machine is active, it’s extremely loud. You’ll be given headphones to protect your ears. If you pay attention, you’ll notice a very loud banging sound. That banging is the magnet being powered up and generating a magnetic field. Every time you hear a bang, the magnet is powered and a powerful magnetic field is created.
Before going into the machine, you would have had the body part ‘secured’. If it’s your foot, it will look like a big boot. If its for your head, it will be a head and neck cage. Its easy to assume that this is simply to hold you still, but this is actually a receiver, which records frequencies.
Essentially, what an MRI scanner does is very similar to a coil machine, albeit on a much larger, more powerful scale. The aim of an MRI scanner is to vibrate molecular structures and measure how they respond. The MRI only aims to vibrate molecules, not destroy them. In order for a molecule to be destroyed, it needs to be consistently vibrated at its resonant frequency until it ‘falls apart’. This is why an MRI doesn’t reach the frequencies required to disrupt human tissue (these would be very, very high frequencies).
When molecules begin to vibrate in the body, the receiver measures how they respond when the magnetic field collapses. Each tissue in the body will respond differently due to its molecular makeup, which is how doctors can see your liver, bones and heart clearly on the scan. It’s also how an MRI detects growths in the body – because the growth will respond differently to the magnetic field than the organ in which it has grown. Clever stuff!
A coil machine is different in that it applies a constant magnetic field to the body. When certain frequencies are used, it causes certain molecules in the bacteria to vibrate at resonance, until they fall apart. Have you ever seen an old washing machine just ‘fall apart’ because a brick’s been thrown in? It’s like that.
CONCLUSION
So there you have it. The human body can be exposed to much higher frequencies and much stronger magnetic fields with no ill effects on human tissue. Human tissue is a much, much more complex structure than bacteria and microorganisms and requires huge amounts of energy to even vibrate – and this can’t be produced by a coil machine.
Has this helped you to understand how coil machines work? I’d love to hear from you – let me know in the comments below!
