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Physical Science & Biophysics Journal

About the Teleportation of a Proton

Jebara AB

Published Jan 11, 2022• 0 citations
Publisher

Abstract

“Let us try to describe an experiment where a proton travels a distance in a given time and another experiment where it travels the same distance in no time. After the coupling of 2 protons, the proton which is taken away should instead be left moving by itself. The particle could teleport itself without it being a teleportation of information only”.

DOI
10.23880/psbj-16000203

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This study delves into the concept of velocity within the context of the physical interpretation of acceleration and deceleration for objects in motion through space.A thought experiment involving a marble and a photon is utilized to propose the hypothesis that all objects in space, inherently, do not take time to move from a specific source to a destination.Through a series of methodically structured thought experiments, this hypothesis and the accompanying conclusions are explored and validated.Newton's first law of motion serves as the basis for these scenarios, enabling logical conclusions to be drawn.Based on the arguments presented, this hypothesis is used to provide a novel interpretation of quantum mechanics.The methodology emphasizes logical reasoning over detailed mathematical formulations, offering a more accessible presentation.Consider two entities: a photon and a marble.Both the photon and the marble are set to travel 100 meters in a straight line within the same dimension and in a vacuum.Since a photon travels at the speed of light, it takes approximately 0.0000003336 seconds for the photon to cover the distance.In contrast, assuming the marble is initially traveling at a speed of 40 meters per second in this thought experiment, it takes 2.5 seconds for the marble to complete the 100 meters.This raises a question: The photon covered the distance in 0.0000003336 seconds, while the marble took 2.5 seconds.In other words, the marble took approximately 2.4999996664 additional seconds to complete the distance compared to the photon.What accounts for this extra time taken by the marble?Consider the following analogy: Mrs. Bob has two sons, Eric and Smith, with Eric being the elder child in the household.Mrs. Bob typically sends Eric to buy groceries from a supermarket located a few blocks away from her house.Eric always takes about 20 minutes to purchase the groceries and return.One day, when Eric was unavailable, Mrs. Bob sent her younger son, Smith, instead.Smith left the house with a list of groceries, just as Eric would.However, unlike Eric, Smith returned after 45 minutes.Mrs. Bob noticed this significant difference in timing between the two and asked Smith the question: "Why did you take so long?Eric would return in 20 minutes."If Smith were to respond, he might say: "I couldn't find some of the items, so I had to go to another supermarket, which is farther away," "There was a long line at the checkout," "It took me a while to locate some items in the supermarket," "The supermarket was closed, so I had to wait for 15 minutes until it opened," "I ran into a friend on the way and we chatted for a while," and so forth.Smith could provide multiple reasons to account for his delay.However, all

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“Let us try to describe an experiment where a proton travels a distance in a given time and another experiment where it travels the same distance in no time. After the coupling of 2 protons, the proton which is taken away should instead be left moving by itself. The particle could teleport itself without it being a teleportation of information only”.
We report on the possibility of teleportation of a quantum particle, a distinctly different phenomenon from the teleportation of a quantum state through entanglement. With the first meaning, teleportation is theoretically possible by placing the particle initially at rest (with a certain uncertainty) out of any equilibrium point of a potential well or barrier and by frequently monitoring whether the particle remains at rest. This quantum Zeno dynamics inhibits acceleration, and features disappearance from the classical turning point and appearance in another turning point, if there is any other, with a probability that approaches unity by increasing the frequency of the measurements. This phenomenon has all the ingredients attributed in science fiction to teleportation: The particle is always at rest, cannot be found in the path between the two turning points, and saves travel time. We discuss the feasibility, in principle, of teleportation of electrons, protons, and other particles, and conclude its increasing impracticability as the particle gets heavier. Nevertheless, our paper establishes a basis for further studies in which the projective and instantaneous measurements are replaced by more realistic models.
The stories about teleportation did sound to me like a horrible monster that was growing while walking through the cities. Everyone who knew that Walter and I were opposed to the idea of instantaneous influences at a distance told us that quantum teleportation was now proven and that it demonstrated clearly the existence of influences at a distance. My usual response was that quantum theory had some very great successes with predicting the precise energies of electrons in atoms. The experiments relating to quantum information such as the EPRB-type experiments and the so-called teleportation did not agreewith quantum theorywith such precision but only approximately. Furthermore, asmentioned, I soon convinced myself that the idea of quantum teleportation assumes that Bell is correct and influences at a distance do exist.We thus have another logical circle. Quantum teleportation is only then something remarkable if influences at a distance are assumed to exist on the basis of Bell’s work to start with. Experiments are explained using this assumption and then, because of a very approximate agreement of the experiments with the quantum predictions, it is claimed that teleportation has been proven. Here are the actual facts startingwith the concept of a quantum computer.
Until recently, only science-fiction authors ventured to use a term teleportation. However, in the last few years, on the eve of upcoming new millennium, the situation changed very much. The present report gives a synopsis of main concepts in this area. The readers will be able to make sure that paradoxical phenomena in the microcosm give a possibility to demonstrate the exchange of properties between microobjects, removed at a very large distance from each other, when no forces act between them. A new experimental scheme with hydrogen and helium nuclei is proposed. It is expected that the results of these experiments will be considered as teleportation of nuclear properties of atoms of the simplest chemical elements. A problem of teleportation of the more palpable cargo is left to the physics of the more distant future.
Abstract One of the most surprising consequences of quantum mechanics is the entanglement of two or more distance particles. The “ghost” interference and the “ghost” image experiments demonstrated the astonishing nonlocal behavior of an entangled photon pair. Even though we still have questions in regard to fundamental issues of the entangled quantum systems, quantum entanglement has started to play important roles in quantum information and quantum computation. Quantum teleportation is one of the hot topics. We have demonstrated a quantum teleportation experiment recently. The experimental results proved the working principle of irreversibly teleporting an unknown arbitrary quantum state from one system to another distant system by disassembling into and then later reconstructing from purely classical information and nonclassical EPR correlations. The distinct feature of this experiment is that the complete set of Bell states can be distinguished in the Bell state measurement. Teleportation of a quantum state can thus occur with certainty in principle.
This study delves into the concept of velocity within the context of the physical interpretation of acceleration and deceleration for objects in motion through space.A thought experiment involving a marble and a photon is utilized to propose the hypothesis that all objects in space, inherently, do not take time to move from a specific source to a destination.Through a series of methodically structured thought experiments, this hypothesis and the accompanying conclusions are explored and validated.Newton's first law of motion serves as the basis for these scenarios, enabling logical conclusions to be drawn.Based on the arguments presented, this hypothesis is used to provide a novel interpretation of quantum mechanics.The methodology emphasizes logical reasoning over detailed mathematical formulations, offering a more accessible presentation.Consider two entities: a photon and a marble.Both the photon and the marble are set to travel 100 meters in a straight line within the same dimension and in a vacuum.Since a photon travels at the speed of light, it takes approximately 0.0000003336 seconds for the photon to cover the distance.In contrast, assuming the marble is initially traveling at a speed of 40 meters per second in this thought experiment, it takes 2.5 seconds for the marble to complete the 100 meters.This raises a question: The photon covered the distance in 0.0000003336 seconds, while the marble took 2.5 seconds.In other words, the marble took approximately 2.4999996664 additional seconds to complete the distance compared to the photon.What accounts for this extra time taken by the marble?Consider the following analogy: Mrs. Bob has two sons, Eric and Smith, with Eric being the elder child in the household.Mrs. Bob typically sends Eric to buy groceries from a supermarket located a few blocks away from her house.Eric always takes about 20 minutes to purchase the groceries and return.One day, when Eric was unavailable, Mrs. Bob sent her younger son, Smith, instead.Smith left the house with a list of groceries, just as Eric would.However, unlike Eric, Smith returned after 45 minutes.Mrs. Bob noticed this significant difference in timing between the two and asked Smith the question: "Why did you take so long?Eric would return in 20 minutes."If Smith were to respond, he might say: "I couldn't find some of the items, so I had to go to another supermarket, which is farther away," "There was a long line at the checkout," "It took me a while to locate some items in the supermarket," "The supermarket was closed, so I had to wait for 15 minutes until it opened," "I ran into a friend on the way and we chatted for a while," and so forth.Smith could provide multiple reasons to account for his delay.However, all