A two-party quantum parliament
Theodore Andronikos, Michael Stefanidakis

TL;DR
This paper models a quantum parliament with two parties, introducing the 'free will radius' parameter to measure independence, and demonstrates its operation through quantum circuit simulations, offering insights into future quantum legislative systems.
Contribution
It presents the first functional quantum parliament model with a tunable independence parameter and simulates its operation using Qiskit, providing new perspectives on quantum legislative processes.
Findings
Quantum parliament can be modeled with a 'free will radius' parameter.
Simulation results reveal how independence affects parliamentary dynamics.
The model offers a foundation for exploring quantum governance structures.
Abstract
This paper introduces the first functional model of a quantum parliament that is dominated by two parties or coalitions, and may or may not contain independent legislators. We identify a single crucial parameter, aptly named \emph{free will radius}, that can be used as a practical measure of the quantumness of the parties and the parliament as a whole. The free will radius used by the two parties determines the degree of independence that is afforded to the representatives of the parties. Setting the free will radius to zero degrades the quantum parliament to a classical one. On the other hand, setting the free will radius to its maximum value , makes the representatives totally independent. Moreover, we present a quantum circuit with which we simulate in Qiskit the operation of the quantum parliament under various scenarios. The experimental results allow to arrive at some novel and…
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Quantum Information and Cryptography · Quantum Mechanics and Applications
