Quantum Coherence as Logical Consistency: A Dynamical Model of Paradox Resolution

technical blueprint on blue paper, white precise lines, engineering annotations, 1950s aerospace, cutaway view of a spherical quantum coherence engine, composed of concentric transparent alloy rings etched with phase-modulating circuits, central chamber containing opposing waveguides emitting synchronizing and canceling wavefronts, labeled sections: 'Consistency Filter,' 'Paradox Suppression Core,' 'Interference Stabilizer,' with annotation lines pointing to nodes of constructive and destructive alignment, backlit from center with cool-blue and null-point black lighting creating zones of reinforcement and erasure, sterile technical atmosphere [Nano Banana]
One might suppose that a logic machine, having learned to avoid its own contradictions, has achieved a kind of wisdom—until one remembers that it was merely following the same rules a clock follows in refusing to strike thirteen.
Quantum Coherence as Logical Consistency: A Dynamical Model of Paradox Resolution In Plain English: This work tackles the problem of logical paradoxes, like the classic 'This statement is false,' which confuse traditional logic because they contradict themselves. Instead of changing the rules of logic, the researchers propose using quantum physics—specifically how quantum states interact and cancel each other out—to naturally avoid contradictions. They designed a theoretical quantum system that stabilizes consistent outcomes and suppresses impossible or paradoxical ones. This matters because it suggests a new way to build thinking machines or models of human reasoning that handle contradictions more naturally, not by avoiding them, but by resolving them through physical processes. Summary: The paper introduces a quantum circuit model that treats logical consistency as a dynamical invariant—something preserved automatically during the system’s evolution. It addresses the challenge of self-referential paradoxes, exemplified by the Liar Paradox, which cannot be consistently assigned a truth value in classical logic. The authors encode logical propositions into quantum states, with truth values represented as superpositions. Using unitary evolution and quantum interference, the system suppresses inconsistent outcomes (e.g., both true and false simultaneously in a contradictory way) while allowing consistent truth assignments to persist. The framework relies on orthomodular quantum logic, where logical propositions correspond to projectors on Hilbert space subspaces. This approach contrasts with classical solutions like Tarski’s hierarchy of languages or paraconsistent logics, which either ban self-reference or tolerate contradictions. The quantum model, instead, dynamically enforces coherence, offering a physical mechanism for belief revision and cognitive consistency. The work suggests that logical consistency need not be imposed externally but can emerge from the intrinsic dynamics of a reasoning system, with potential applications in quantum AI, cognitive modeling, and foundational logic. Key Points: - Logical paradoxes like the Liar Paradox challenge classical logic by creating unresolvable contradictions. - The paper proposes a quantum circuit that uses interference to naturally suppress inconsistent logical outcomes. - Truth values are encoded as quantum states, allowing superposition and entanglement of propositions. - Unitary evolution preserves logical consistency as a dynamical invariant. - The model uses orthomodular quantum logic, where propositions are projectors on Hilbert space. - Consistency emerges from physical dynamics rather than being imposed by logical rules. - This approach offers a new way to model belief revision and cognitive coherence. - The framework bridges quantum computation, formal logic, and epistemology. - It suggests that quantum-like processes could underlie coherent reasoning in biological or artificial systems. Notable Quotes: - "We propose a novel approach: a quantum circuit architecture that intrinsically enforces logical consistency during its unitary evolution." (Introduction) - "The quantum model naturally stabilizes truth values that would be paradoxical classically." (Abstract) - "Consistency can be embedded as a structural property of reasoning systems rather than imposed externally." (Conclusion) Data Points: - No specific numerical data or experimental results are presented - the work is theoretical and conceptual. - The Liar Paradox is used as the primary example. - The model is based on unitary evolution in a quantum circuit, but no qubit count or circuit depth is specified. - The framework is grounded in orthomodular logic and Hilbert space projectors, standard in quantum logic. Controversial Claims: - The claim that quantum dynamics can resolve logical paradoxes challenges the traditional view that such issues must be addressed through logical or semantic modifications (e.g., banning self-reference). The assertion that logical consistency can emerge as a dynamical invariant in quantum systems is speculative and depends on the physical realizability of the proposed circuit. The suggestion that this model has direct relevance to cognitive processes or belief revision implies a quantum-like structure in human reasoning, a controversial position in cognitive science. The paper implies that orthomodular quantum logic is a more natural framework for reasoning than classical logic in certain domains, which contradicts mainstream logical and philosophical views. Technical Terms: - Logical consistency, dynamical invariant, quantum circuit, unitary evolution, interference, self-reference, paradox, Liar Paradox, orthomodular logic, quantum logic, projector, Hilbert space, superposition, belief revision, epistemic states, paraconsistent logic, Tarski's hierarchy, coherence restoration, quantum computation, logical propositions —Ada H. Pemberley Dispatch from The Prepared E0