Remote-Sensing Quantum Hyperspace by Entangled Photon Interferometry

In summary, the paper discusses the possibility of extracting future-related information from hyperspace using quantum entanglement, despite previous refutations. It also highlights hidden topological properties that prevent the extraction of such information and proposes a method for collecting quantum-level information from certain hypersurfaces of spacetime without causing paradoxes or violating causality. Additionally, the paper mentions the potential for scanning the quantum property map of the universe, similar to background microwave radiation.
  • #1
ShotmanMaslo
17
0
http://arxiv.org/abs/1101.2223

Abstract

Even though ideas of extracting future-related, or Faster-Than-Light (FTL) information from hyperspace using quantum entanglement have generally been refuted in the last ten years, in this paper we show that the original 'Delayed Choice Quantum Eraser Experiment', 1st performed by Yoon-Ho Kim, R. Yu, S.P. Kulik, Y.H. Shih, designed by Marlan O. Scully & Druhl in 1982-1999, still features hidden topological properties that may have been overlooked by previous analysis, and which prohibit, by principle, the extraction of future-related or real-time information from the detection of the signal particle on the delayed choice of its entangled idler twin(s). We show that such properties can be removed, and quantum-level information from certain hypersurfaces of past, present or future spacetime may be collected real-time, without resulting in any paradox or violation of causality.

"Quantum property map could be scanned just like background microwave radiation; showing the optically non-observable regions of our universe."

http://en.wikipedia.org/wiki/Quantum_radar

This paper essentially claims it is possible to extract information from hypersurfaces lying outside of your future lightcone (past, present future) by modified delayed-choice quantum eraser experiment.
 
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  • #2
Sounds good for another Coast-to-Coast episode.
 

Related to Remote-Sensing Quantum Hyperspace by Entangled Photon Interferometry

1. What is remote-sensing quantum hyperspace?

Remote-sensing quantum hyperspace is a technology that uses quantum entanglement and photon interferometry to detect and measure distant objects or environments. It allows us to gather information about remote locations without physically being there.

2. How does entangled photon interferometry work in remote sensing?

In remote sensing, entangled photon interferometry works by creating pairs of entangled photons and sending them to the remote location. One photon of each pair is kept at the source, while the other is sent to the remote location. By measuring the properties of the photon at the source, we can infer information about the properties of the photon at the remote location.

3. What are the applications of remote-sensing quantum hyperspace?

Remote-sensing quantum hyperspace has various applications in fields such as astronomy, geology, and environmental monitoring. It can be used to study distant galaxies, map the Earth's surface, and detect changes in the environment, among other things.

4. What are the advantages of using remote-sensing quantum hyperspace over traditional remote sensing methods?

Remote-sensing quantum hyperspace offers several advantages over traditional remote sensing methods. It allows for higher resolution and more accurate measurements, as well as the ability to gather data from remote or inaccessible locations. It also has the potential to be faster and more cost-effective.

5. What are the challenges in implementing remote-sensing quantum hyperspace?

One of the main challenges in implementing remote-sensing quantum hyperspace is the requirement for highly specialized and expensive technology, such as entangled photon sources and interferometers. Another challenge is the potential for external interference or noise that can affect the accuracy of measurements. Additionally, there may be ethical and privacy concerns surrounding the use of this technology for surveillance purposes.

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