A report presents a theoretical study of communication among intelligent agents in the presence of quantum entanglement and the absence of classical (in the sense of non-quantum) communication channels. Several paradigms of self-organization based on quantum entanglement are introduced and discussed. These paradigms include inverse diffusion, transmission of conditional information, decentralized coordination, cooperative computing, competitive games, and topological evolution in active systems.
This work was done by Michail Zak of Caltech for NASA's Jet Propulsion Laboratory. To obtain a copy of the report, "Entanglement-Based Self-Organization," access the Technical Support Package (TSP) free on-line at www.nasatech.com/tsp under the Information Sciences category.
NPO-30192
This Brief includes a Technical Support Package (TSP).
Self-Organization Based on Quantum Entanglement
(reference NPO-30192) is currently available for download from the TSP library.
Don't have an account?
Overview
The document presents a theoretical study on communication among intelligent agents utilizing quantum entanglement, conducted by Michail Zak at the Jet Propulsion Laboratory (JPL) under NASA's sponsorship. It explores the concept of self-organization in systems where classical communication channels are absent, focusing on how quantum entanglement can facilitate unique forms of interaction and information transfer.
The report introduces several paradigms of self-organization that arise from quantum entanglement, including inverse diffusion, transmission of conditional information, decentralized coordination, cooperative computing, competitive games, and topological evolution in active systems. These paradigms suggest that intelligent agents can organize themselves and communicate in ways that differ significantly from traditional methods.
A key point made in the study is the distinction between intentional and unintentional communication through quantum entanglement. While previous research has suggested that quantum communication could allow for instantaneous message transfer over long distances, it is noted that such communication would not convey intentional information. However, the author argues that unintentional messages transmitted via quantum entanglement could still provide valuable information, leading to emergent phenomena that contribute to self-organization.
The document emphasizes the potential of quantum entanglement as a tool for developing new communication strategies among intelligent agents, particularly in environments where classical communication is not feasible. This could have significant implications for various fields, including robotics, distributed systems, and complex adaptive systems.
The work is framed within the context of ongoing research into quantum communication and self-organization, highlighting its relevance to advancements in technology and our understanding of intelligent systems. The report serves as a technical support package, detailing the theoretical underpinnings and potential applications of the concepts discussed.
Overall, the document underscores the innovative intersection of quantum physics and communication theory, proposing that quantum entanglement could revolutionize how intelligent agents interact and organize themselves in complex environments. It invites further exploration and experimentation in this emerging field, suggesting that the principles of quantum mechanics may hold the key to new forms of intelligent communication and self-organization.
