If you have been keeping up with what has been happening in our world you should be aware of CERN and all the other COLLIDERS across the earth, of all the so called Telescopes mushrooming everywhere, of all the nuclear developments including the artificial suns developed by multiple countries and all the “space” “cosmic” “astro” projects being carried on not only by our government and all other governments but even by private corporations and individuals.   Believe it or not ALL these things are related!  All of them directed by the Fallen Angels who are orchestrating all activities in order to execute their agenda.  Time is running out and they have a deadline.  That is why you see all the craziness that escalates by the minute. 

Keep all that in mind as you read the rest of this post.  Look for the signs, symbols and clues.  As you read the definitions and explanations laid out here see if you can discover for yourself the TRUTH of what it all means.  Ask GOD to show you, to reveal what is hidden.  Understand that NOTHING the authorities, governments or media tell you is true!! NOTHING!  They are covering up, concealing the truth from you.

Gamma ray – Wikipedia

A gamma ray, also known as gamma radiation (symbol γ or {\displaystyle \gamma }), is a penetrating form of electromagnetic radiation arising from the radioactive decay of atomic nuclei. It consists of the shortest wavelength electromagnetic waves and so imparts the highest photon energy. Paul Villard, a French chemist and physicist, discovered gamma radiation in 1900 while studying radiation emitted by radium. In 1903, Ernest Rutherford named this radiation gamma rays based on their relatively strong penetration of matter; in 1900he had already named two less penetrating types of decay radiation (discovered by Henri Becquerel) alpha rays and beta rays in ascending order of penetrating power.

Gamma rays from radioactive decay are in the energy range from a few kiloelectronvolts (keV) to approximately 8 megaelectronvolts (~8 MeV), corresponding to the typical energy levels in nuclei with reasonably long lifetimes. The energy spectrum of gamma rays can be used to identify the decaying radionuclides using gamma spectroscopy.Very-high-energy gamma rays in the 100–1000 teraelectronvolt (TeV) range have been observed from sources such as the Cygnus X-3microquasar.

Natural sources of gamma rays originating on Earth are mostly a result of radioactive decay and secondary radiation from atmospheric interactions with cosmic ray particles. However, there are other rare natural sources, such as terrestrial gamma-ray flashes, which produce gamma rays from electron action upon the nucleus. Notable artificial sources of gamma rays include fission, such as that which occurs in nuclear reactors, and high energy physics experiments, such as neutral pion decay and nuclear fusion.  (Artificial Suns are created using nuclear energy.  The newest and largest ones us Fission and/or Fusion.  We have no idea how long governments and scientists have been working on these projects, because they do not tell us!  When they are discovered, they LIE about it!)

Gamma rays and X-rays are both electromagnetic radiation, and since they overlap in the electromagnetic spectrum, the terminology varies between scientific disciplines. In some fields of physics, they are distinguished by their origin: Gamma rays are created by nuclear decay, while in the case of X-rays, the origin is outside the nucleus. In astrophysics, gamma rays are conventionally defined as having photon energies above 100 keV and are the subject of gamma ray astronomy, while radiation below 100 keV is classified as X-rays and is the subject of X-ray astronomy.

Gamma rays are ionizing radiation and are thus biologically hazardous. Due to their high penetration power, they can damage bone marrow and internal organs. Unlike alpha and beta rays, they easily pass through the body and thus pose a formidable radiation protection  challenge, requiring shielding made from dense materials such as lead or concrete. On Earth, the magnetosphere protects life from most types of lethal, cosmic radiation, except gamma rays, which are absorbed by 0.53 bars of atmosphere as they penetrate the atmosphere.

Gamma rays cannot be reflected off a mirror and their wavelengths are so small that they will pass between atoms in a detector.   (So, apparently, there is no way to detect these waves, so we don’t know when they are being used on us or our environment.)

History of discovery

The first gamma ray source to be discovered was the radioactive decay process called gamma decay. In this type of decay, an excited nucleus emits a gamma ray almost immediately upon formation.^{[note 1]} Paul Villard, a French chemist and physicist, discovered gamma radiation in 1900, while studying radiation emitted from radium. (Particle Accelerators and Colliders began to be created at that time) Villard knew that his described radiation was more powerful than previously described types of rays from radium, which included beta rays, first noted as “radioactivity” by Henri Becquerel in 1896, and alpha rays, discovered as a less penetrating form of radiation by Rutherford, in 1899. However, Villard did not consider naming them as a different fundamental type.^[1][2] Later, in 1903, Villard’s radiation was recognized as being of a type fundamentally different from previously named rays by Ernest Rutherford, who named Villard’s rays “gamma rays” by analogy with the beta and alpha rays that Rutherford had differentiated in 1899.^[3] The “rays” emitted by radioactive elements were named in order of their power to penetrate various materials, using the first three letters of the Greek alphabet: alpha rays as the least penetrating, followed by beta rays, followed by gamma rays as the most penetrating. Rutherford also noted that gamma rays were not deflected (or at least, not easily deflected) by a magnetic field, another property making them unlike alpha and beta rays.

Gamma rays were first thought to be particles with mass, like alpha and beta rays. Rutherford initially believed that they might be extremely fast beta particles, but their failure to be deflected by a magnetic field indicated that they had no charge.^[4] In 1914, gamma rays were observed to be reflected from crystal surfaces, proving that they were electromagnetic radiation.^[4] Rutherford and his co-worker Edward Andrade measured the wavelengths of gamma rays from radium, and found they were similar to X-rays, but with shorter wavelengths and thus, higher frequency. This was eventually recognized as giving them more energy per photon, as soon as the latter term became generally accepted. A gamma decay was then understood to usually emit a gamma photon.

Sources

NASA FERMI EXPLORES THE EARLY UNIVERSE

Natural sources of gamma rays on Earth include gamma decay from naturally occurring radioisotopes such as potassium-40, and also as a secondary radiation from various atmospheric interactions with cosmic ray particles. Some rare terrestrial natural sources that produce gamma rays that are not of a nuclear origin, are lightning strikes and terrestrial gamma-ray flashes, which produce high energy emissions from natural high-energy voltages. Gamma rays are produced by a number of astronomical processesin which very high-energy electrons are produced. Such electrons produce secondary gamma rays by the mechanisms of bremsstrahlung, inverse Compton scattering and synchrotron radiation. A large fraction of such astronomical gamma rays are screened by Earth’s atmosphere. Notable artificial sources of gamma rays include fission, such as occurs in nuclear reactors, as well as high energy physics experiments, such as neutral pion decay and nuclear fusion.  (Exactly what they are creating with Colliders and accelerators, and fusion/fission artificial Suns.  They are creating astronomical opportunities by shooting electromagnetic waves, heat waves, and sound/frequency waves into the atmosphere and ionisphere!)

A sample of gamma ray-emitting material that is used for irradiating or imaging is known as a gamma source. It is also called a radioactive source, isotope source, or radiation source, though these more general terms also apply to alpha and beta-emitting devices.Gamma sources are usually sealed to prevent radioactive contamination, and transported in heavy shielding.

Particle physics

Gamma rays are produced in many processes of particle physics. Typically, gamma rays are the products of neutral systems which decay throughelectromagnetic interactions (rather than a weak or strong interaction). For example, in an electron–positron annihilation,  the usual products are two gamma ray photons. If the annihilating electron and positron are at rest, each of the resulting gamma rays has an energy of ~ 511 keV and frequency of ~ 1.24×10²⁰ Hz. Similarly, a neutral pion most often decays into two photons. Many otherhadronsand massivebosonsalso decay electromagnetically. High energy physics experiments, such as the Large Hadron Collider, accordingly employ substantial radiation shielding.^{[citation needed]} Because subatomic particles mostly have far shorter wavelengths than atomic nuclei, particle physics gamma rays are generally several orders of magnitude more energetic than nuclear decay gamma rays. Since gamma rays are at the top of the electromagnetic spectrum in terms of energy, all extremely high-energy photons are gamma rays; for example, a photon having the Planck energy would be a gamma ray.

Other sources

A few gamma rays in astronomy are known to arise from gamma decay (see discussion of SN1987A), but most do not.

Photons from astrophysical sources that carry energy in the gamma radiation range are often explicitly called gamma-radiation. In addition to nuclear emissions, they are often produced by sub-atomic particle and particle-photon interactions.Those include electron-positron annihilation, neutral pion decay, bremsstrahlung, inverse Compton scattering, and synchrotron radiation.

The red dots show some of the ~500 terrestrial gamma-ray flashes daily detected by the Fermi Gamma-ray Space Telescopethrough 2010. Credit: NASA/Goddard Space Flight Center.

Laboratory sources

In October 2017, scientists from various European universities proposed a means for sources of GeV photons using lasers as exciters through a controlled interplay between the cascade and anomalous radiative trapping.^[6]

Terrestrial thunderstorms

Thunderstorms can produce a brief pulse of gamma radiation called a terrestrial gamma-ray flash. These gamma rays are thought to be produced by high intensity static electric fields accelerating electrons, which then produce gamma rays by bremsstrahlungas they collide with and are slowed by atoms in the atmosphere. Gamma rays up to 100 MeV can be emitted by terrestrial thunderstorms, and were discovered by space-borne observatories.This raises the possibility of health risks to passengers and crew on aircraft flying in or near thunderclouds.^[7] 
This is very likely the reason for all the crazy lightning we have been witnessing worldwide.  Now that the elite have learned to control lightning they are using it for whatever they please.  Especially for creating gamma rays to create energy.

The most effusive solar flares emit across the entire EM spectrum, including γ-rays. The first confident observation occurred in 1972.^[8]

Solar Flares are another thing that we had never even heard of before but suddenly we find them occurring with greater and greater frequency.  If indeed that is what we are witnessing. There is no telling because they can make anything appear in the skies and we have no way to know what is real and what is artificially created by the “MAGICK of SCIENCE” or should I say WITCHCRAFT?.

Cosmic ray

Extraterrestrial, high energy gamma rays include the gamma ray background produced when cosmic rays (either high speed electrons or protons) collide with ordinary matter, producing pair-production gamma rays at 511 keV. Alternatively, bremsstrahlung are produced at energies of tens of MeV or more when cosmic ray electrons interact with nuclei of sufficiently high atomic number (see gamma ray image of the Moon near the end of this article, for illustration).

Pulsars and magnetars

The gamma ray sky (see illustration at right) is dominated by the more common and longer-term production of gamma raysthat emanate from pulsars within the Milky Way. Sources from the rest of the sky are mostly quasars. Pulsars are thought to be neutron stars with magnetic fields that produce focused beams of radiation, and are far less energetic, more common, and much nearer sources (typically seen only in our own galaxy) than are quasars or the rarer gamma-ray burst sources of gamma rays. Pulsars have relatively long-lived magnetic fields that produce focused beams of relativistic speed charged particles, which emit gamma rays (bremsstrahlung) when those strike gas or dust in their nearby medium, and are decelerated.  (This is the reason LA PALMA is their center, because the Milky Way can be seen and accessed so easily there, giving them their best opportunity to utilize the gamma ray technology.  That is the reason for the Volcanic activity during the season that Milky Way is in place, the dust, gas and ash, increases the energy they can create!)

This is a similar mechanism to the production of high-energy photons in megavoltage radiation therapy machines (see bremsstrahlung). Inverse Compton scattering, in which charged particles (usually electrons) impart energy to low-energy photons boosting them to higher energy photons. Such impacts of photons on relativistic charged particle beams is another possible mechanism of gamma ray production. Neutron stars with a very high magnetic field (magnetars), thought to produce astronomical soft gamma repeaters, are another relatively long-lived star-powered source of gamma radiation.

Quasars and active galaxies

More powerful gamma rays from very distant quasars and closer active galaxies are thought to have a gamma ray production source similar to a particle accelerator. High energy electrons produced by the quasar, and subjected to inverse Compton scattering, synchrotron radiation, or bremsstrahlung, are the likely source of the gamma rays from those objects. It is thought that a supermassive black hole at the center of such galaxies provides the power source that intermittently destroys stars and focuses the resulting charged particles into beams that emerge from their rotational poles.When those beams interact with gas, dust, and lower energy photons they produce X-rays and gamma rays. These sources are known to fluctuate with durations of a few weeks, suggesting their relatively small size (less than a few light-weeks across). Such sources of gamma and X-rays are the most commonly visible high intensity sources outside our galaxy. They shine not in bursts (see illustration), but relatively continuously when viewed with gamma ray telescopes. The power of a typical quasar is about 10⁴⁰ watts, a small fraction of which is gamma radiation. Much of the rest is emitted as electromagnetic waves of all frequencies, including radio waves.

A hypernova.Artist’s illustration showing the life of a massive star as nuclear fusion converts lighter elements into heavier ones. When fusion no longer generates enough pressure to counteract gravity, the star rapidly collapses to form a black hole. Theoretically, energy may be released during the collapse along the axis of rotation to form a long duration gamma-ray burst.

Gamma-ray bursts

Notice the rings… a very popular satanic/freemason/magick/mind control symbol.  The rings and coloring in these photos are very similar to what we saw on the stage at the ASTROWORLD event with Travis Scott where all those demons were released  

Bear in mind that the bible tells us that stars are angels/entities/spirits.  They are not big pieces of rock flying around in the sky.  They are spirits and they are able to take on any form that they please.  They are all going to be falling from the sky here very soon, if they have not already begun to do so.  That is what the bible says.  ALL the stars in heaven will fall

See also: Gamma-ray burst

The most intense sources of gamma rays, are also the most intense sources of any type of electromagnetic radiation presently known. They are the “long duration burst” sources of gamma rays in astronomy(“long” in this context, meaning a few tens of seconds), and they are rare compared with the sources discussed above. By contrast, “short” gamma-ray bursts of two seconds or less, which are not associated with supernovae, are thought to produce gamma rays during the collision of pairs of neutron stars, or a neutron star and a black hole.^[9]

Gamma spectroscopy is the study of the energetic transitions in atomic nuclei, which are generally associated with the absorption or emission of gamma rays. As in optical spectroscopy (see Franck–Condon effect) the absorption of gamma rays by a nucleus is especially likely (i.e., peaks in a “resonance”) when the energy of the gamma ray is the same as that of an energy transition in the nucleus. In the case of gamma rays, such a resonance is seen in the technique of Mössbauer spectroscopy. In the Mössbauer effect the narrow resonance absorption for nuclear gamma absorption can be successfully attained by physically immobilizing atomic nuclei in a crystal. The immobilization of nuclei at both ends of a gamma resonance interaction is required so that no gamma energy is lost to the kinetic energy of recoiling nuclei at either the emitting or absorbing end of a gamma transition. Such loss of energy causes gamma ray resonance absorption to fail. However, when emitted gamma rays carry essentially all of the energy of the atomic nuclear de-excitation that produces them, this energy is also sufficient to excite the same energy state in a second immobilized nucleus of the same type.

Applications

Gamma rays provide information about some of the most energetic phenomena in the universe; however, they are largely absorbed by the Earth’s atmosphere. Instruments aboard high-altitude balloons and satellites missions, such as the Fermi Gamma-ray Space Telescope, provide our only view of the universe in gamma rays.

IF you can’t see it yet, let me assure you, this is EXACTLY what they have been playing with at CERN.  They have gone far beyond all that now.  The technology that they have developed most people would never be able to get their minds around.  This is very dark and sinister stuff.  What they are playing with is far more dangerous than those who believe themselves to be “experts” can even imagine!

Gamma-induced molecular changes can also be used to alter the properties of semi-precious stones, and is often used to change white topaz into blue topaz.

This is another thing that the elite seem to be focused on.  GEMS, PRECIOUS METALS, ROCKS and SAND/Crystal.  Just like the Magicians of old!  This is one thing they were really excited about with the Volcano on La Palma, the gemstones that were left behind by the lava.   
It is almost like the fallen angels believe that the one with the “most toys/ treasure” at the end wins!!  I guess maybe because we are told that Heaven is made of precious metals and gems.  It is very likely that they hold some power in the realm of the Spirit.

Non-contact industrial sensors commonly use sources of gamma radiation in refining, mining, chemicals, food, soaps and detergents, and pulp and paper industries, for the measurement of levels, density, and thicknesses.^[12] Gamma-ray sensors are also used for measuring the fluid levels in water and oil industries.^[13] Typically, these use Co-60 or Cs-137 isotopes as the radiation source.

In the US, gamma ray detectors are beginning to be used as part of the Container Security Initiative (CSI). These machines are advertised to be able to scan 30 containers per hour.

Gamma radiation is often used to kill living organisms, in a process called irradiation. Applications of this include the sterilization of medical equipment (as an alternative to autoclaves or chemical means), the removal of decay-causing bacteria from many foods and the prevention of the sprouting of fruit and vegetables to maintain freshness and flavor.

Health effects

Gamma rays cause damage at a cellular level and are penetrating, causing diffuse damage throughout the body. However, they are less ionising than alpha or beta particles, which are less penetrating.

Low levels of gamma rays cause a stochastic health risk,which for radiation dose assessment is defined as the probability of cancer induction and genetic damage.^[14] High doses produce deterministic effects, which is the severity of acute tissue damage that is certain to happen. These effects are compared to the physical quantity absorbed dose measured by the unit gray (Gy).^[15]