đ¤ AI Summary
This study addresses the lack of authentic quantum processes in scienceâart integration by leveraging quantum entanglement and intrinsic randomness as foundational media for artistic creation. Methodologically, we implement a Bell-test experiment using spontaneously generated entangled photon pairs via spontaneous parametric down-conversion, acquiring real-time coincidence-count data and mapping it directly to audio parameters and synchronized visual generation logicâthereby converting quantum correlations into multimodal artistic expression. Our key contribution is the first use of nonclassical Bell-inequality violations as unclonable artistic triggers: each performance is strictly determined by real-time quantum measurement outcomes and cannot be reproduced by classical stochastic processes. The outcome is a live audiovisual performance fully driven in real time by quantum entanglement, offering an embodied, accessible pathway for public engagement with quantum nonlocality and expanding the paradigmatic boundaries of quantum technologies in creative practice.
đ Abstract
The advent of quantum physics has revolutionized our understanding of the universe, replacing the deterministic framework of classical physics with a paradigm dominated by intrinsic randomness and quantum correlations. This shift has not only enabled groundbreaking technologies, such as quantum sensors, networks and computers, but has also unlocked entirely new possibilities for artistic expressions. In this paper, we explore the intersection of quantum mechanics and art, focusing on the use of quantum entanglement and inherent randomness as creative tools. Specifically, we present The Sound of Entanglement, a live musical performance driven by real-time measurements of entangled photons in a Bell test. By integrating the measured quantum correlations as a central compositional element and synchronizing live visuals with experimental data, the performance offers a unique and unrepeatable audiovisual experience that relies on quantum correlations which cannot be produced by any classical device. Through this fusion of science and art, we aim to provide a deeper appreciation of quantum phenomena while expanding the boundaries of creative expression.