Greetings. I hope you do not mind if I share a few of my own ideas which are not quite eligible to go on Arxiv for whatever reason. They deal predominantly with technology, physics and medicine. I will provide a brief summary of the ideas here and will provide a link to my Internet Archive page wherein the full-length papers may be found. Feedback is welcome. I am hoping that someone can get my ideas to the right people as I am not a member of the per se academic community and do not have access to a laboratory and therefore cannot test my hypotheses.
https://archive.org/details/open_source ... ey_202610/
#1 - Introduction of Precision Quanta of Latency via Angular Pre-Polarization of Electron Spins in Optical Relays for Computing (25 October 2026)
Summary:
Precision timing combined with conditionally transparent materials are used as the basis for the creation of a circuit capable of performing 'arithmetic add' functions by customizing the spin angle of electrons in optical memristors. These optical memristors are transparent to the naked eye, but are, in fact, opaque until they interact with light. Only when the spin of the electrons in the material is congruent with the angular momentum of the light is light permitted to pass. The more offset that angle is from parallel (it can be increments as small as one degree of angle ranging from 0 degrees to 90 degrees) the longer it takes for the material to turn transparent as a result of interaction with a light source e.g. a 5-picsecond delay for each degree of angle. A series of these memristors can be used to delay light traveling between an emitter and a detector and the length of time required for the light to pass through all of the memristors can be used to infer the sum of the values stored in the individual memristors.
#2 - Mechanism for the Collimated Emission of Magnetism (28 October 2026)
Summary:
A specialized electromagnetic, potentially spherical, is predicated upon running an insulated wire into the center of a ball bearing with special nano-texturization which forces electrons to take spiroform routes as they move toward the exterior of the bearing. This allows the bearing to act as both the "core" and the "winding" of an electromagnet. All parts of the exterior of the bearing, thus, become the magnetic north pole of the electromagnet.
A layer of a Transition Metal Dichalcogenide is coated upon the exterior of this bearing which is anti-ferromagnetic in nature. Therefore, all of the magnetism created by the electromagnet is, by default, blocked.
Outside of this layer, a thin layer of metal to be used as a cathode is layered. Outside of this layer, an Light-Emitting Diode is positioned which is concave in nature and entirely surrounds the ball bearing. The LED is designed to emit far-infrared light which is capable of penetrating the cathode material and striking the Transition Metal Dichalcogenide. The introduction of charge from the opposing direction causes the magnetism-blocking effects of the material to be rendered inert, allowing an extremely collimated "beam" of magnetism to be released by the device in the direction of the operator's choosing.
#3 - Generation of Collimated Magnetic Field Lattices (CMFLs) for Rapid Cooling in Absence of Chilling Plates (28 October 2026)
Summary:
Highly collimated magnetic fields of nanometer scale may be used to achieve the rapid cooling of objects in the context of metallurgy, the cooling of computer and RADAR systems and perhaps in bio-medical contexts. Strong magnetism restricts the thermal oscillation of nuclear motion to a single linear direction and motion is unrestricted in alternating zones without these "magnetic needles." The result is that thermal energy is nullified when un-magnetized atoms interact with magnetized atoms. A three-dimensional lattice composed of these collimated magnetic fields would be highly practical for cooling applications calling for rapid cooling of extremely hot objects and would have the added benefit of allowing objects to be cooled symmetrically, as much on the inside than the outside, as this method does not rely upon traditional conduction or contact with a chilling plate.
So long as it doesn't offend anyone, I'll probably pitch a new idea about once per week if that's alright.
Thank you all for reading, please let me know if I can answer any questions as I know that automated translators are not perfect.
#4 - Mechanism for the Emission of Null-Spin Photons Suitable for Distortionless Amplification of Ambient Electromagnetism (3 November 2026)
Summary:
Phase and polarity-controlled light is introduced into a fiber-optic loop with atomic-thickness walls. Perforations are incorporated in the exterior wall of the loop which correspond to the wavelength of the light. If light is scattered more readily at peaks in phase, we may generate large numbers of null-spin photons by using neodymium atoms affixed to corresponding positions on the inner track of the fiber in order to force light at a peak in phase to become decoupled from its host wave and to pass through the "window" in the fiber. With each phasing of the light, there is another opportunity for the light to escape through another perforation and this escape is aided by the magnetic push provided by the carefully spaced neodymium atoms.
These null-spin photons, because they have no intrinsic magnetic moment, are subsumed by ambient electromagnetic waves. These specialized photons are useful because they allow both incoming and outgoing electromagnetism to be amplified subsequent to their emission by a traditional antenna. This is particularly useful in the context of cellular telephones as a result of limitations on signal amplitude imposed by the increasingly small antennae being used in nano-arrays. The range of 5G signals, for example, could be extended by performing an amplification step subsequent to broadcast using such an approach. Incoming signals could also be amplified in order to increase signal-to-noise ratio.
Summary:
Phase and polarity-controlled light is introduced into a fiber-optic loop with atomic-thickness walls. Perforations are incorporated in the exterior wall of the loop which correspond to the wavelength of the light. If light is scattered more readily at peaks in phase, we may generate large numbers of null-spin photons by using neodymium atoms affixed to corresponding positions on the inner track of the fiber in order to force light at a peak in phase to become decoupled from its host wave and to pass through the "window" in the fiber. With each phasing of the light, there is another opportunity for the light to escape through another perforation and this escape is aided by the magnetic push provided by the carefully spaced neodymium atoms.
These null-spin photons, because they have no intrinsic magnetic moment, are subsumed by ambient electromagnetic waves. These specialized photons are useful because they allow both incoming and outgoing electromagnetism to be amplified subsequent to their emission by a traditional antenna. This is particularly useful in the context of cellular telephones as a result of limitations on signal amplitude imposed by the increasingly small antennae being used in nano-arrays. The range of 5G signals, for example, could be extended by performing an amplification step subsequent to broadcast using such an approach. Incoming signals could also be amplified in order to increase signal-to-noise ratio.