Bio Resonance: How it Works

Bio Resonance: The electromagnetic-resonance concept may provide an intriguing link to a number of little-understood and disputed phenomena, such as extrasensory perception and the ability of “healers” to diagnose and treat patients. In both of these activities, the participants may be unconsciously using an innate biological mechanism similar to that of magnetic-resonance imaging.

MRI depends upon the same principles as cyclotron resonance. The latter requires both a steady-state magnetic field and an oscillating electrical field acting on a charged molecule or atom. Nuclear magnetic resonance is quite similar, except that the nucleus of the atom is resonated. The magnetic imagers in use today resonate the nuclei of hydrogen atoms in the body. The two fields combined transfer energy to the hydrogen nuclei. The image is formed by producing the resonance, exciting the hydrogen nucleus, and then stopping the oscillating ield. The nucleus immediately returns to its unexcited state, giving back the energy as an electromagnetic signal that is sensed by the imager.

In theory, all types of complex resonance may be used in the same way. The resonant state is produced when the right combination of fields transfers energy to a certain component of the body. The fields are then shifted out of resonance, and the excited component releases the energy as an electromagnetic field that is sensed by appropriate devices.

In clinical use of nuclear magnetic imaging, this process is repeated many times. The returned signal is stored in a computer, which gradually builds up a three-dimensional image of the interior of the body. Different organs are seen on the basis of their water content and the state of their hydrogen atoms. Hydrogen nuclei in cancer tissue have a different signal than those in normal tissue and they return a different signal. Clinical magnetic scanners use very strong magnetic fields and correspondingly high radio-frequency fields as the oscillator. This is done to produce a high-resolution image with great detail. While lower field strengths and lower frequencies would also work in imaging, they would yield little detail.