Reseachers turned ordinary sunlight into UV-light.

“A new solid-state material from Kyushu University turns visible light into high-energy UV at sunlight intensity. By attaching alkyl chains to the sp3 carbon atoms of an organic molecule, the researchers create precisely controlled gaps between neighboring molecules. This spacing enables efficient triplet energy transfer, achieving a quantum yield above 60% in the solid state. When combined with a donor molecule. The system reaches 1.9% visible-to-UV upconversion efficiency. Credit: Naoyuki Harada / Kyushu University” (ScitechDaily, Scientists Turn Ordinary Sunlight Into UV Light in Major Energy Breakthrough)

“Sunlight just got an upgrade: Scientists have developed a material that converts ordinary sunshine into UV light, opening new possibilities for solar-powered technologies.” (ScitechDaily, Scientists Turn Ordinary Sunlight Into UV Light in Major Energy Breakthrough)

“Imagine pouring two cups of warm water together and expecting to get one cup of boiling water. That is impossible in everyday life, but something similar can happen in the quantum world. There, two low-energy particles of light, known as photons, can combine their energy to create a single photon with much higher energy.” (ScitechDaily, Scientists Turn Ordinary Sunlight Into UV Light in Major Energy Breakthrough)

Japanese reseachers have created the solid state material. That can transform sunlight, or visible light, into UV light. This system creates. Two UV photons per 100 regular visible light photons.  This means that the efficiency of that system is about 2%. But that system. It can be. The pathfinder for new types of quantum systems. 

In the quantum world, it’s possible to combine two or more lower-energy photons into one high-energy entirety. The ability to connect photons makes it possible. To create high-energy photons. This means that by connecting photons, reseachers can create photons. That energy level is the same as gamma rays. This could be possible in cases where the reseachers can manipulate single photons. 

Photonics opens new paths to high-energy systems. And a high-energy  photon. That impact on an atom's nucleus can raise the energy level in the atom’s core very high. These types of things can be used in military and civil applications. The high-energy photons that impact the electron cloud. It can be used to create gamma-ray impulses. Those gamma-rays. They can be used in the highly effective gamma-ray translumination systems. 

This type of technology. It makes it possible to create coherent, or almost coherent. Gamma-rays. The system can look. A little bit like the acoustic devices that create the coherent acoustic waves. The gamma-ray sources involve electrons. And then the high-energy photons impact those electrons. Then they send the gamma-ray emission. Coherent gamma-rays can have multiple purposes. The ability to create and focus gamma-rays without fission. It can offer the possibility. To create science. That is not always as good. As we want. 

Above. Diagram of the gamma-ray lasers. 

1) Gamma-ray sources. The magnetic boxes. There. Electrons are trapped. Then the high-energy photon cloud injects energy into those electrons. The side-coming gamma-rays will press the gamma-ray that the bottom system sends into a coherent form. 

2) They release gamma-rays. The nanotechnical version can use the atom chains. Those are in the fullerene nanotube. Then those atoms send the gamma-ray impulse through their electrons. The energy impulse can happen by inputting light quanta into their core. 

Photonic fission, or photonuclear fission, and molecule-level quantum erasing. 

First, the photonic nuclear fission is not fission. It’s so-called quasifission. The atom that gets energy quanta. That rips it in pieces. During that process. The bonds between protons and neutrons release energy. That is stored in them. Those so-called nuclear isomer systems make it possible to create the nuclear bomb. Without fallout. 

“A nuclear isomer is a metastable state of an atomic nucleus in which one or more nucleons (protons or neutrons) occupy excited state levels (higher energy levels). "Metastable" describes nuclei whose excited states have half-lives of 10−9 seconds or longer,100 to 1000 times longer than the half-lives of the excited nuclear states that decay with a "prompt" half-life (ordinarily on the order of 10−12 seconds). Some references recommend using a threshold of 5×10−9 seconds to distinguish the metastable half-life from the normal "prompt" gamma-emission half-life” (Wikipedia, Nuclear isomer)

“In the latter half of 1998, a small clutch of researchers and students at the University of Texas embarked upon a groundbreaking experiment. Within a large outbuilding marked with a slapdash sign reading “Center for Quantum Electronics”, the team powered up a makeshift X-ray emitter and directed its radiation beam at an overturned disposable coffee cup. Atop the improvised styrofoam platform was a tiny smear of one of the most expensive materials on Earth: a variation of the chemical element hafnium known as Hf-178-m2. (DamnInteresting, Half Science and Hafnium Bombs)

DoD investigated that material as an energy source. But they desire that the system is too expensive. The thorium nuclear systems. They can also use the photonic fissions. The system shoots photonic quanta into the thorium atoms. But the fact is that. The hafnium bomb. It could also give. A booster energy for the hydrogen bomb. 

The big question is this: could this thing make it possible to create a similar effect in other heavy, but stable atoms? Or could photonic fission cause a chain reaction in bismuth atoms? Photonuclear fission reactions can also turn. Things. Like bismuth and lead into nuclear fissile matter. 

Hafnium is the element 72. So there are stable elements behind it before radioactive elements. The problem is that most of those elements are expensive. But the lead could be interesting. For that purpose.

Those atoms are gold and heavier atoms. Those are near the radioactive non-stable elements.  There is a possibility that. The heavier than Hafnium atoms. They could also make similar effects as Hafnium. But most of them  are very expensive. Except lead. But successful photonic fission in lead is possible only in the very pure lead structures. Another requirement is the material. It must be dense  enough. Then the system. It must send the energy impulse precisely in the center of that object. The crossing gamma-rays. They could also cross in the middle of the lead ball. Or nanotechnical injectors can inject light quanta into the center of the lead ball. 

The most feared systems. That those high-energy photons can make. These are so-called non-radioactive decay. Or quasifission. This effect is called photonic fission. The idea is that. The right systems can adjust an atom’s core into a higher energy level. When that energy pumping ends. Those atoms’ cores send a high-energy impulse. To an atom’s electron shell. This happens because an atom will release. It's extra energy in the moment. Where that energy pumping ends. 

The photon fission means cases. The photonic impulses to the atom’s core cause decay. This thing means things like Hafnium bombs into reality. The system. It can use a nanotechnical gamma-ray injector for that purpose. The system must only transmit energy quanta straight into the atom’s core. If this kind of quantum eraser system is possible to make. That system can make it possible to create a system. 

That puts things like metals that just vanish. If that happens in a vehicle, ship, or aircraft. That can cause a thin.  That we can call “Bermuda Syndrome”. If the system injects energy straight into the atom’s core. That energy travels out from the atom’s nucleus. Blowes its electrons away. And if the energy impulse has enough power. That thing rips the entire atomic structure into pieces. We could see that thing as the vanishing aircraft or other structure. 

If that energy impulse has a high enough energy level. That impulse rips electrons out from their orbitals. In the cases of very heavy but stable atoms. The escaping electrons. They can rip an atom’s core into pieces. This is  the idea of things like Hafnium bombs. The nano-size gamma-laser. It can launch light quanta into the atom’s core. The requirement for those systems is this. The light quanta must not touch the photon shell. If the system. It can raise the atom’s core energy level high enough in relation to its electrons. 

That thing can make things like Hafnium bombs possible. The difference between photonics-based and traditional laser technology is simple. Regular lasers will affect electron shells and orbitals. And then those electron shells inject energy into the atom’s nucleus. The quantum photonic system makes it possible to inject energy directly into the atom’s core. This means that the energy of the atom’s core rises higher in relation to regular laser-based energy injections. 

In regular lasers, the system raises the most out of the electron’s energy level. And that presses the atoms together. The outer orbital’s energy level keeps the atom together. If the system. It can decrease the outer electrons. Energy level as low as possible. At the same time. The system. Its energy level in its core is very high. That makes it possible. The energy wave travels across the atom. And then pushes electrons out from its orbitals. 

https://www.damninteresting.com/half-science-and-hafnium-bombs/

https://www.frontiersin.org/journals/physics/articles/10.3389/fphy.2020.00040/full

https://link.springer.com/article/10.1140/epja/s10050-024-01303-9

https://magica.com/youtube-summarizer/exploring-hafnium-bombs-the-potential-of-nuclear-isomers-as-a-new-weapon-FHPzQrJ8D7M

https://www.military.com/defensetech/2006/06/13/superbomb-or-crapshoot

https://scitechdaily.com/scientists-turn-ordinary-sunlight-into-uv-light-in-major-energy-breakthrough/

https://en.wikipedia.org/wiki/Hafnium

https://en.wikipedia.org/wiki/Hafnium_controversy

https://en.wikipedia.org/wiki/Lead

https://en.wikipedia.org/wiki/Nuclear_isomer