"Caption:This image depicts the radium atom’s pear-shaped nucleus of protons and neutrons in the center, surrounded by a cloud of electrons (yellow), and an electron (yellow ball with arrow)". (InterestingEngineering, MIT’s new method helps probe inside atom’s nucleus using electrons as ‘messengers)
“The team used the environments within molecules as a sort of microscopic particle collider. Scientists have developed a new method that can help them probe inside atom’s nucleus. Developed by researchers at MIT, the method uses the atom’s own electrons as “messengers” within a molecule to help probe inside the nucleus.” (InterestingEngineering, MIT’s new method helps probe inside atom’s nucleus using electrons as ‘messengers)
The radium fluoride molecule can help to analyze an atom’s nucleus. The system uses radium fluoride to transmit energy into the atom’s electron curtain. That curtain sends energy, or wave movement, into the atom’s nucleus. Reflecting radiation creates valleys and hills in the electron curtain. Those hills and valleys tell about the position of protons and neutrons.
And then. Researchers can analyze atoms. Protons and neutrons. And their position. Every proton in the atom’s core is like a small magnet. And this system can tell why there is more matter than antimatter in the universe. The same system can make it possible. To create new ways to create nanomachines and nanostructures. The biggest advance in this method to analyze atoms is that. This system fits the table. Another advancement is that the system must not have as strong energy fields as previous systems.
“Illustration of photon-photon scattering in the laboratory. Two green petawatt lasers beams collide at the focus with a third red beam to polarise the quantum vacuum. This allows a fourth blue laser beam to be generated, with a unique direction and colour, which conserves momentum and energy. Credit: Zixin (Lily) Zhang.” (ScitechDaily, Oxford Physicists Simulate Quantum “Light from Darkness” for the First Time)
Previous systems. That included kilometers-long accelerators. They were not very suitable for use in nanotechnology. Those previous systems used so much energy that the weak structures could be destroyed. The radium fluoride system uses radiation. That is lower energy than accelerators, which can disturb the nanotweezers. That could be acoustic or laser beams. Low-energy surveillance system. Will not disturb the process itself. The weakness in this kind of system is in radium. Radium is a very highly radioactive material. It is not possible to produce lots of radium fluoride. In the wrong hands, that material is very dangerous.
Things like the ability to create light from emptiness are also things that can revolutionize nanotechnology. The synthetic color, or wavelength of the radiation, makes those laser tweezers more stable. The outside effects are not very strong in the cases where the system moves particles in the factory that uses laser tweezers. Nanotechnology can use those things. Into the more advanced ability to connect and disconnect atoms into molecules. The ability to affect a single bond. In chemical compounds is the thing. That can revolutionize nanotechnology. The Oxford method requires very high-power lasers. But someday that technology can turn right.
If we think about a situation. That energy beam destroys an atom’s nucleus. The magnetic field can pull protons off the particle cloud. And then the remaining particles are neutrons. There is a possibility to accelerate neutrons by bombarding them with laser beams. Or maybe the magnetic fields can make that acceleration if a neutron is in the right position. The neutron has polarity. And that makes it possible to accelerate them using magnetic fields.
https://interestingengineering.com/science/mits-method-probe-inside-atom-electrons
https://scitechdaily.com/oxford-physicists-simulate-quantum-light-from-darkness-for-the-first-time/
