Radiation, at its core, is another term for the emission of energy. Every substance in the universe emits some type of energy, so whether you’re sitting at your computer now or scrolling on your phone, you are a source of radiation, as is everything around you.
Given that everything emits radiation, we are surrounded by radiation every day. Radiation is what heats up the earth, allows us to listen to the radio, make calls on our phones, or watch videos on our laptops.
Harmful vs Harmless Radiation
From the conventional physics perspective, most of the radiation that we are exposed to is thought to be harmless. There are, however, some substances, materials, and devices that give off harmful radiation. The difference between harmful and benign radiation has traditionally been determined by whether the frequency of the radiation waves will cause damaging effects to an atom or cell.
As frequencies get faster and more intense, radiation was observed to cause two effects which are very similar: it either caused a chemical compound to break or it shook the electron off the atom. The term to describe this phenomena was listed as ‘ionising’ radiation - and this was deemed harmful to the atom and therefore the human cell.
If the radiation field was at a lower frequency, and was not intense enough to break a chemical compound, nor to shake the electron off the atom, then it was categorised as ‘non-ionising’ and harmless.
The Electromagnetic Spectrum
The science world then put together a chart of all the different sources of all radiating devices showing what frequencies they emit called the Electromagnetic Spectrum.
This is the standard way that all radiation safety has been measured, in terms whether the radiation is ionising or non-ionising and whether it has the capability to cause damage.
The EM spectrum is the range of all types of EM radiation. Radiation travels and spreads out as it goes and can be described in terms of a stream of mass-less particles, called photons, each traveling in a wave-like pattern at the speed of light. Each photon contains a certain amount of energy.
The different types of radiation are defined by the amount of energy found in the photons. Radio waves have photons with low energies and gamma-rays the highest, making up each end of the EM spectrum. Between the two are microwaves, infrared light, visible light, ultraviolet light and x-rays.
The Ionising / Non-Ionising Distinction
Ionisation is the term given to the process by which electrons are removed from their orbit around a particular atom, causing that atom to become charged, or ionised. This process can occur when radiation of sufficient strength interacts with normal atoms.
Radiation that is not powerful enough to trigger this process is known as non-ionising. The division between ionising and non-ionising radiation occurs in the ultraviolet (UV) range, which is why that range is split into UV-A and UV-B rays.
Conventional science postulates that by fundamentally changing the chemical makeup of an atom, ionising radiation can cause molecular damage and the unchecked cellular growth known as cancer. If exposed to human reproductive organs, ionising radiation can also lead to future birth defects in unborn children.
Ionising radiation does possess valuable properties, however, and has been widely adopted in the field of modern healthcare. Medical imaging, such as x-rays, rely on man-made ionising radiation. Radiotherapy is used to treat conditions, including cancer, by obliterating targeted areas of tissue. Unsurprisingly, the same dangers that occur from natural radiation are present with the manufactured kind, and side effects from high doses of radiation treatment can be serious in and of themselves.
Examples of non-ionising radiation include infrared, microwaves, and light along the visible spectrum. This form of radiation is capable of exciting atoms and in turn heating them up - that’s how a microwave oven works.
Human biological tissue is not exempt from this effect, but the effects are much less measurable because the nonionizing frequencies we’re exposed to are much slower.
The best example we have is also the reason we have life on our planet - the sun. Overexposure to the sun's rays causes the skin to cook and eventually burn, even though only a small fraction of that which reaches the surface of the Earth is considered to be ionising.
A Different Understanding of the Energy Fields Around Us
While all of the above is accepted and understood by conventional physics, a new understanding of physics, as discovered by Professor Lakicevic the creator of the Omnia technology, has revealed a deeper understanding of how non-ionising radiation could affect our cells.
This understanding is based on the critical fact that we are electrical beings having a biological experience.
Every cell in our body relies on electrical current to exist and function.
Moreover, it has particular phases, or ‘spin’ effects which are crucial to keep in balance for our good health.
The spin of electric current in phone radiation is not in the same pattern as the spin of the electrical current in the human cell.
The Distinction: Balanced or Imbalanced
According to Prof. Lakicevic, there is only ‘balanced’ or 'imbalanced' energy.
Reframing our evaluation of radiation being either 'harmful' or 'harmless' within this distinction gives us a different understanding of where the potential dangers could lie.
Balanced electrical energy fields have characteristics of a centred zero point and whereby the two phases of the atom and cell are in balance (the ‘compression’ phase is balanced with the ‘expansion’ phase of the light ring). An example of balanced radiation is the Sun’s rays. It gives birth to all life, it grows all our food and we cannot live without sunlight.
An example of ‘imbalanced’ radiation, where the zero point is not aligned with the centre, is man-made radiation. Electrical fields made by man used to generate and pass data have this feature and are therefore not in the same vibrational pattern as the human cell.
This 20 minute video of How to Harmonise a Radiation Field offers a fuller understanding of this distinction.
When exposed to a radiation field, it is the excitement of the atomic structure within the cell alone, rather than whether or not heat is generated, that causes the disturbance.
You can also see these effects in the Omnia test results.
Ilija Lakicevic, ""Aton" True Cell, Atom and Particle Concept", International Journal of Science and Research (IJSR
The Electromagnetic Spectrum image comes from Wikimedia Commons