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What if the infrared photons generated by mitochondria become entangled—either with each other or with neuronal structures such as microtubules? Could this create a cascading effect, where the entangled pairs feed back into neurons, allowing the classical communication of four possible quantum states to be transmitted through electro-neurochemical signaling?
Could it be negative energy that opens or connects quantum wormholes that allow the classical transmission of bell statemeasurements
Could gravity be measured/observed and guided allowing quantum entanglement and the bell state measurements to transceived to allow the quantum operation.
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Proteins Double as Qubits: A Step That Could One Day Bridge Quantum Computing and Biology
Researchers recently tested a long-standing theory—and the results surprised them. Scientists at Washington State University developed a fluid that behaves as though it has negative mass. In practical terms, this means that when pushed in one direction, the fluid moves in the opposite direction—essentially flipping the normal rules of motion.
To create this effect, rubidium atoms were cooled to near absolute zero, forming a Bose-Einstein condensate—a unique state of matter where particles move in sync and behave as a single wave. The team used lasers to trap the atoms and adjusted their spin using another set of beams, forcing the condensate into a condition that mimicked the behavior of negative mass.
Additionally, experiments have provided evidence of 'negative time'—in which photons appear to exit a material before they enter it, suggesting a possible observational effect where time behaves unconventionally.
Source:
Proteins Double as Qubits – The Quantum Insider
How is the Bell state measurement continually sent or updated to the receiving entangled particle?
Is there a mechanism—known or theoretical—by which entanglement updates can occur across distances?
What if someone quantum-entangled a black hole? Could the Bell state measurement be transferred or completed via gravity—or possibly through a form of time or space-time synchronization?
What if it's the vacuum force or negative energy that closes the space-time gap and allows us to send instantly bell state measurements at great distances?
It appears that NASA's Eagleworks team is investigating the Casimir Effect, potentially shedding light on negative energy and how quantum wormholes might enable Bell-state measurements via “spooky action at a distance.”
“Spooky action” is a term often associated with quantum nonlocality—and, interestingly, also linked to researcher James Matthew Tilly.
NASA Document:
NASA Technical Paper – Eagleworks
Warp Bubble Found? Scientists Explain How This Works
Science Times
→ Likely: Negative Energy / Warp Drive Physics
NASA Eagleworks: Space Warping and Quantum Vacuum Plasma Thruster – Propellantless Propulsion
NextBigFuture
→ Likely: Warp Drive Physics / Speculative Propulsion
Could gravity itself be a medium of quantum entanglement?
Might negative energy emerge in equations where time is treated as a negative variable?
Do rubidium atom condensates, and their odd properties (e.g., negative mass), relate to time-reversal or entanglement in any meaningful way? Could cooled rubidium atoms mediate negative energy as negative energy relates to negative time and/or negative mass through generally accepted equations?
Could one use negative mass to guide negative gravity as a beam or use negative energy based field beams to quantum entangle? Would either of negative gravity or negative energy allow bell state measurement transfers while simultaneously performing quantum entanglement? Does negative energy open quantum wormholes to allow classical information, such as bell state measurements be received at large distances?
by Eric Sorensen, Washington State University
Washington State University physicists have created a fluid with negative mass, which is exactly what it sounds like. Push it, and unlike every physical object in the world we know, it doesn't accelerate in the direction it was pushed. It accelerates backwards.
The phenomenon is rarely created in laboratory conditions and can be used to explore some of the more challenging concepts of the cosmos, said Michael Forbes, a WSU assistant professor of physics and astronomy and an affiliate assistant professor at the University of Washington. The research appears today in the journal Physical Review Letters, where it is featured as an "Editor's Suggestion."
September 30, 2024
5 min read
Physicists showed that photons can seem to exit a material before entering it, revealing observational evidence of negative time