Quantum Cooperation

Axiomathes 21 (2):347-356 (2011)
Abstract
In a theoretical simulation the cooperation of two insects is investigated who share a large number of maximally entangled EPR-pairs to correlate their probabilistic actions. Specifically, two distant butterflies must find each other. Each butterfly moves in a chaotic form of short flights, guided only by the weak scent emanating from the other butterfly. The flight directions result from classical random choices. Each such decision of an individual is followed by a read-out of an internal quantum measurement on a spin, the result of which decides whether the individual shall do a short flight or wait. These assumptions reflect the scarce environmental information and the small brains’ limited computational capacity. The quantum model is contrasted to two other cases: In the classical case the coherence between the spin pairs gets lost and the two butterflies act independently. In the super classical case the two butterflies read off their decisions of whether to fly or to wait from the same internal list so that they always take the same decision as if they were super correlated. The numerical simulation reveals that the quantum entangled butterflies find each other with a much shorter total flight path than in both classical models
Keywords Quantum entanglement  Insects  Biological systems  Thermal creation of quantum entanglement  Numerical simulation of insect behavior
Categories (categorize this paper)
DOI 10.1007/s10516-010-9139-3
Options
Edit this record
Mark as duplicate
Export citation
Find it on Scholar
Request removal from index
Revision history

Download options

Our Archive


Upload a copy of this paper     Check publisher's policy     Papers currently archived: 33,208
Through your library

References found in this work BETA

Add more references

Citations of this work BETA

No citations found.

Add more citations

Similar books and articles

Quantum Theoretical Concepts of Measurement: Part I.James L. Park - 1968 - Philosophy of Science 35 (3):205-231.
Correlations, Contextuality and Quantum Logic.Allen Stairs & Jeffrey Bub - 2013 - Journal of Philosophical Logic 42 (3):483-499.
Quantum Information Does Not Exist.Armond Duwell - 2003 - Studies in History and Philosophy of Science Part B: Studies in History and Philosophy of Modern Physics 34 (3):479-499.
Probability Theories in General and Quantum Theory in Particular.L. Hardy - 2003 - Studies in History and Philosophy of Science Part B: Studies in History and Philosophy of Modern Physics 34 (3):381-393.

Analytics

Added to PP index
2011-01-02

Total downloads
104 ( #56,816 of 2,242,612 )

Recent downloads (6 months)
1 ( #410,355 of 2,242,612 )

How can I increase my downloads?

Monthly downloads

My notes

Sign in to use this feature