Micro LEDs and neutrinos are new tools for next-generation optical computing.
Optical computing is one of the most promising tools for creating new and powerful computers. Similar theories that researchers made for regular computers can be used in optical computers. The problem is how to transform photons into electric information. In some models, information travels between switches and photon transistors and gates in photon form.
At the point where information travels to a switch or router a photovoltaic cell turns it into the electric form. And the other side the miniature LED turns it back into the photonic form. Or the router can replaced by using miniature mirrors. That increases the photonic volume in the data processing.
The optical computer is light and in the binary version when light is on, the value in the system is one. And when light is off the value is zero. The problem is how to blink light fast enough.
The answer for that could be nano-LEDs or a system that looks like a camera shutter. When the shutter lets the light go to the photovoltaic cell the value is one. And when the shutter is shut, the value is zero. That allows to make the optical or half-optical computer by using regular lights.
If the system uses two routes for transmitting data is possible to make even faster computers. The system requires AI-based control, but in a binary system values one and zero have different routes. So route one gives value one. And route two gives a value of zero. Or opposite. The speed of shutters determines the speed of the computer.
Making the optical computer by using two lights that send their light to photovoltaic cells is possible. Cell number one gives a value of zero. Cell number one gives value one. There should be fast-moving shutters like in cameras between those photovoltaic cells and the light source.
The nano LEDs can be the tools that can also make the optical computers fast. The system can control those nano LEDs with very high accuracy. Computers can use Those LEDs in extremely small nano-lasers. Those nano-lasers could give very high-accurate light impulses to systems that turn the binary data into quantum mode.
"New research has discovered new interactions between neutrinos and photons, potentially shedding light on mysteries in particle physics and solar phenomena". (ScitechDaily.com/Neutrino-Photon Interactions: Unlocking the Mysteries of Particle Physics)
The neutrino is the almost perfect qubit. But the problem is: how to get neutrinos?
The photon-neutrino interaction is the next-generation thing, that could use in quantum computers. Neutrino is a very weakly interacting particle, that interacts with photons. In some visions, the photons can be used to load information into neutrinos.
The system uses single photons where information is loaded, and those photons will turn those neutrinos into qubits that can transport information over long distances. And then the neutrino detector will remove that data from neutrinos. The idea about neutrino qubits is based on the model that neutrino can have superposition like all other elementary particles.
The problem with neutrinos is that they are hard to get. In some visions, the photons are used to stop the neutrino and then the information will load into it. Then some kind of EM radiation transfers that neutrino into the wanted direction. Then photon impacts or neutrino detectors can be used to download information from neutrino.
https://www.sciencealert.com/neutrinos-ghost-particles-can-interact-with-light-after-all
https://scitechdaily.com/neutrino-photon-interactions-unlocking-the-mysteries-of-particle-physics/
https://scitechdaily.com/quantum-well-nanowire-array-micro-leds-the-future-of-on-chip-optical-communication/
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