On 2025-03-22, poindexter FORTRAN <REALITY!
poindexter.FORTRAN@vert.synchro.net> wrote:
anthk wrote to All <=-
Not Buddhishm but Synchronicity from Bohm/Jung/Pauli/David Peat (the book is online) it's the closest I can think of a 'working' religion based on obscure quantum mechanic facts.
Which book? Both Jung and Peat have books titled "Synchronicity"
(different bylines...)
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þ Synchronet þ .: realitycheckbbs.org :: scientia potentia est :.
The one from Peat, and maybe Talbot.
BTW,
https://phys.org/news/2025-03-experimental-nonlocal-energy-quantum-memories.html
Full text if you are lazy today:
_____________________
An experimental test of the nonlocal energy alteration between two quantum
memories
by Ingrid Fadelli , Phys.org
An experimental test of the nonlocal energy alteration between two quantum
memories Conceptual diagram: (2+1) dimensional relativistic Bohmian
trajectory. Credit: Dou et al.
Quantum technologies operate by leveraging various quantum mechanical
effects, including entanglement. Entanglement occurs when two or more
particles share correlated states even if they are distant.
When two particles are spin entangled, the intrinsic angular momentum
(i.e., spin) of one particle can influence that of its entangled partner.
This would suggest that the energy of the second particle can be altered
via a nonlocal correlation, without enabling faster-than-light
communication.
Researchers at Shanghai Jiao Tong University and Hefei National Laboratory
recently carried out a study aimed at testing this theoretical prediction
experimentally using two quantum memories.
Their findings, published in Physical Review Letters, appear to confirm
the existence of nonlocal energy alterations, thus broadening the present
understanding of quantum nonlocality.
"When two particles are in a spin-entangled state, measuring one particle
nonlocally influences the spin state of the other," Xian-Min Jin and Dr.
Jian-Peng Dou, co-authors of the paper, told Phys.org.
"This insight led us to a bold conjecture: quantum correlations could
enable the nonlocal alteration of energy distribution in space. This
seemingly surreal phenomenon was alluded to in the de Broglie-Bohm theory,
yet it has neither been formally named nor experimentally tested."
To probe the existence of the nonlocal energy alteration predicted by
earlier theoretical works, Jin, Dr. Dou and their colleagues used two
quantum memories, devices that can generate, store, probe and retrieve
quantum states.
Using these memories, they created an optical device that can separate and
recombine a quantum system's wavefunctions to measure quantum
interference, also known as a Mach-Zehnder interferometer.
"We denote the Stokes photon (S1) generated during the write process of
two quantum memories as the first particle, while the simultaneously
generated atomic excitation serves as the second particle," explained Jin
and Dr. Dou.
"Since these two particles originate from the same spontaneous Raman
scattering process, they naturally possess the quantum correlation
required for this study."
An experimental test of the nonlocal energy alteration between two quantum
memories Bohmian trajectory distribution and atomic excitation alteration
predicted by the nonlocal theoretical model. QM: Quantum memory. The wavy
arrows indicate that energy disappears in one quantum memory and reappears
in another, rather than representing superluminal energy transfer. Credit:
Dou et al.
With their experimental setup, the researchers were able to determine the
position of the atomic excitation (i.e., serving as the second particle in
the system) and its associated measurement. This was attained either
through a strong measurement by performing a readout operation on the
quantum memories, or through a weak probe-based method known as
single-photon Raman scattering.
"The weak probe process can be metaphorically described as follows:
imagine an observer with obstructed vision attempting to locate the atomic
excitation (i.e., the energy)," said Jin and Dr. Dou.
"Each observation only slightly perturbs the quantum memory, while
yielding blurred yet useful information about the energy's position.
Although this information about position is imprecise, it plays a crucial
role when combined with post-selection, allowing the verification of
quantum correlations between past and future events."
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_____________________
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Jin, Dr. Dou and his colleagues were ultimately able to predict the
distribution of Bohm trajectories of the Stokes photon in their system, as
well as changes in the position of the atomic excitation and associated
conditional probabilities.
They then compared the magnitude of the probabilities they measured, to
verify the nonlocal nature of the de Broglie-Bohm interpretation, which is
the theory predicting the existence of the nonlocal energy alteration they
observed.
"Our experimental results are consistent with the predictions of the
nonlocal theory," said Jin and Dr. Dou. "The results imply that, in the
framework of the de Broglie-Bohm theory, for two entangled particles, the
energy carried by one of them can be changed from one place to another
under the non-local influence of the other particle.
"This is exactly the 'nonlocal energy alteration' proposed in the study.
It is important to emphasize that the term used here is 'alteration'
rather than 'transfer,' meaning that this process does not involve
superluminal energy transmission (i.e., it is a nonlocal energy
modification induced by quantum correlations)."
The researchers' experimental exploration of quantum nonlocality from an
energy standpoint yielded interesting results, which could inform future
studies focusing on nonlocal energy alterations between spin entangled
particles.
Other physicists could soon draw inspiration from their study, using
similar experimental methods to test the de Broglie-Bohm theory.
"For the time being, we do not reject the probabilistic interpretation of
quantum mechanics while supporting Bohm's theory," added Jin and Dr. Dou.
"In this study, quantum memory exhibits unique capabilities that could
contribute to testing fundamental problems in quantum mechanics. These
include in-depth investigations of quantum nonlocality, delayed choice,
the empty wave, light-speed oscillations in the interference region, and
the intrinsic consistency between quantum mechanics and the principles of
relativity."
More information: Jian-Peng Dou et al, Test of Nonlocal Energy Alteration
between Two Quantum Memories, Physical Review Letters (2025). DOI:
10.1103/PhysRevLett.134.093601.
Journal information: Physical Review Letters
¨ 2025 Science X Network
Citation: An experimental test of the nonlocal energy alteration between
two quantum memories (2025, March 21) retrieved 23 March 2025 from
https://phys.org/news/2025-03-experimental-nonlocal-energy-quantum-memories.html
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