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Lecture notes in computer science

Agent Having Quantum Properties: The Superposition States and the Entanglement

Alain-Jérôme Fougères

Published Jan 1, 2017• 1 citation
Publisher
DOI
10.1007/978-3-319-67074-4_38

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The interface theory of perception maintains that sensory systems evolved to present agents with an 'adaptive desktop' rather than a veridical picture of the world. Physical reality is an evolutionary construct. By contrast, consciousness and agency are fundamental, irreducible elements not emergent from physics. Building on this framework, the quantum interface theory (QIT) is introduced. Several core quantum-mechanical features, such as entanglement, superposition, and decoherence, are artefacts of the interface. Moreover, the formalism of 'quantum conscious agents' is sketched to provide a foundation for QIT. Thereby, perception is modelled as a quantum instrument, enabling the study of back-reactions on agent– environment dynamics. Consciousness exhibits quantum-like properties when it 'measures itself', leading to the following prediction: signatures of quantum coherence in biological systems correlate to consciousness only if they modulate an agent's interface dynamics. By integrating evolutionary theory, quantum information, and metaphysics, QIT offers a unifying framework for modern consciousness science.
We present a controlled teleportation scheme for teleporting an arbitrary superposition state of an M -qudit quantum system. The scheme employs only one entangled state as quantum channel, which consists of the qudits from Alice, Bob and every agent. The quantum operations used in the teleportation process are a series of qudit Bell measurements, single-qudit projective measurements, qudit H -gates, qudit-Pauli gates and qudit phase gates. It is shown that the original state can be restored by the receiver only on the condition that all the agents collaborate. If any agent does not cooperate, the original state can not be fully recovered.