We have earlier proposed that non local communication may occur in biological cells. "Non -local communication refers to the ability to transfer information instantaneously over long distances, without any apparent physical connection between the sender and the receiver. ". Certain hypothetical structures such as wormholes may be responsible for non -local communication. We have further postulated that this communication may be altered in biological cells on application of stress. Here we give the details of this hypothesis. We examine in this paper how non local communication may be achieved in biological cells. We also suggest some experiments to prove this hypothesis.
We have earlier proposed that non local communication may occur in biological cells. "Non -local communication refers to the ability to transfer information instantaneously over long distances, without any apparent physical connection between the sender and the receiver. ". Certain hypothetical structures such as wormholes may be responsible for non -local communication. We have further postulated that this communication may be altered in biological cells on application of stress. Here we give the details of this hypothesis. We examine in this paper how non local communication may be achieved in biological cells. We also suggest some experiments to prove this hypothesis.
Quantum state manipulation represents a significant challenge in quantum computing and communication. Current methods, often reliant on classical communication, restrict the ability to transmit information across distances. This paper proposes a novel approach to quantum state manipulation leveraging entanglement tunneling – a mechanism where quantum states instantaneously transfer across distances, circumventing the limitations of local interactions. We detail a "Entanglement Tunneling Protocol" – a meticulously designed algorithm – that demonstrates the potential for instantaneous communication and control over quantum states, fundamentally altering the landscape of information transfer. The paper explores the theoretical foundations, algorithmic implementation, and preliminary experimental validation of this groundbreaking technique. The core claim is that entanglement tunneling offers a pathway towards long-distance quantum communication and control, opening doors to unprecedented capabilities.
Quantum Teleportation is a hypothetical but logical application of Quantum Entanglement, which is basically a non-classical and strange phenomenon. It involves instantaneous communication between two very far situated particles through any non- perceivable link and can be considered to communicate more than the speed of light, and this fact holds the power to stand against Einstein’s General Theory of Relativity. Here the ‘Hidden Variable Theory’ comes into play, and there is a synchronisation between the variables in such a way that leads to their communication. But, whenever there is a simultaneous result from a particle in response to an event occurring on the other particle, it violates ‘The Principle of Locality’. Evidently, there has to be some connection through other spatial dimensions as predicted by the String Theory. It can also be true that, entangled particles take shortcuts for communication across universe which is generally referred to ‘Space-time Wormholes’. Magnetic wormholes have been created till date by manipulating electromagnetic fields, but Space time wormholes are yet to be discovered. Logically, such kind of wormholes can be created only by manipulating the mysterious ‘Gravitational Waves’ which possesses extraordinary characteristics of producing rhythmic but alternate expansion and compression in the Space-time fabric, of intensity equal to the frequency of the wave. As these waves create distortion in space-time fabric, it results in change in the speed of light with respect to time. So it might be possible that entangled particles communicate at a speed higher than that of light which is beyond perception. It might also be possible that the universe is ‘SuperDeterministic’.
Based upon quantum entanglement, a simple algorithm for instantaneous transmission of messages (chosen at random) to remote distances is proposed. A special class of situations when such transmissions are useful, is outlined. Quantum nonlocality arising from entasgled states is the most fundamental and the most mysterious phenomenon in quantum mechanics, and it is in the core of quantum information theory. Fomally quantum nonlocality follows from the SchrMinger equation; however, its physical meaning is still unclear despite successful experimental confirmation,"] and applications to teleportation, cryptography and computing[21. The most attractive aspect of quantum nonlocality is associated with instantaneous transmissions of messages. However, practical applications of this effect are restricted by the postulate adopted by many authors[31 that these messages cannot deliver any information. That is why all the quantum teleportation algorithms must include an adltional (classical) channel.[21. Returning to this postulate, we would like to emphasize that it is implied that the
We start with citing a seminal paper by Josephson-Pallikari-Viras, that biological entities can be assumed to be able to communicate nonlocally, i.e., instantaneously. However, they also admit that the underlying mechanism of such an entangled communication is not clear yet from the wave mechanical equations. Similar arguments have been pointed out by several authors, citing that quantum equations themselves have not described anything on a possible mechanism of quantum-type interaction between two biological entities. This chapter intends to fill that research gap by suggesting a new hypothesis of spin supercurrent as a physical mechanism, based on the assumption of macroquantum condensate having nonlocal effects. Moreover, we also draw several potential applications including superconductor quasi-crystalline structure of space and plausible new method of quantum communication. Such an argument is outlined herein partly based on our personal encounter with astrophysical quantization in the past 17 years or so.
Abstract Entanglement is a random phenomenon that is instantly synchronized, regardless of the space that mediates between entangled particles. However, the instantaneous transmission of information using entanglement is impossible. This is because the instantaneity in the synchronization of non-local outcomes as a consequence of quantum measurement (after the distribution of the entangled pairs) cannot be used for an entanglement-based communication system to transmit information instantaneously. This impossibility stems from the following two reasons: a) the difficulty of controlling non-local outcomes through local actions without the intervention of an auxiliary channel (classical), and b) regardless of the previous point, no communication system based on entanglement can be instantaneous due to the distribution of an entangled pair at relativistic speeds, necessary to generate the quantum channel, each time a qubit must be transmitted. Three simple experiments help to clarify this controversial point. In fact, this study establishes what is truly responsible for the impossibility to transmit information instantaneously of any communication system based on entanglement. In this respect, functional models of the internal behavior of quantum measurement, and entanglement were developed, which allow analyzing the instantaneity post-distribution of entangled particles, before and after a quantum measurement, as well as the randomness in the results obtained from a quantum measurement of the entanglement. In this sense, this study establishes a debate about three possible responsible for the aforementioned randomness: the quantum measurement itself, entanglement, and the human intervention. Finally, homology between the entanglement and the double-slit experiment is presented.
Genetic information transference may hypothetically occur through quantum entanglement of microscopic photon-pairs that use larger groupings of particles (>1012 atom groups) and/or simply travel through the use of photons as a data carrier. Furthermore, it is possible that entanglement and transport of particles of organic material may very well provide the energy and template necessary for horizontal gene transference to occur non-locally on a quantum level resulting in spontaneous nucleotide replication. This represents the transmission of a vast amount of data with regard to the potential transmission of genotype (information) or even phenotype (chemical) media. This data might be utilized as raw data stored and transmitted for bio-quantum-computing at light speed. Another potential use is to seed dangerous bacteria and viruses with inherent weaknesses. This possible future means may create transport or replication over large distances and near light speed or faster for complex organisms as a spatial transport mechanism. Another potential application in space travel would be the ability to pass tight photon beams through a sample of medication that would affect the same response as taking an actual dose. This would result in requiring less weight to be transported of medical supplies on long missions.