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Quantum Control and Experimental Realities

Bern Kohler, Jeffrey L. Krause, F. Ráksi, C. Rose-Petruck, Robert M. Whitnell, K.R. Wilson, Vladislav V. Yakovlev, YiJing Yan

Published Jan 1, 1994• 0 citations
OpenAlex

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This paper introduces the Quantum Reality Stabilizing Feedback (QRSF) framework, a novel approach to addressing fundamental challenges in quantum measurement and the broader interpretation of quantum mechanics. The core concept revolves around employing controlled feedback mechanisms to influence the decoherence processes that inevitably degrade quantum states. Specifically, the framework leverages the potential for classical information to interact with quantum systems, aiming to 'stabilize' the reality of the quantum state by mitigating the effects of environmental noise. The theoretical underpinnings are presented, outlining the mathematical formalism and key equations governing the feedback loop. The proposed method offers a potential pathway toward resolving the measurement problem and could represent a significant step forward in our understanding of quantum reality. The exploration is primarily conceptual and theoretical, lacking experimental validation at this stage, but it lays the groundwork for future research and potentially groundbreaking experiments. The focus is on the conceptual development and mathematical description of the QRSF framework rather than detailed experimental procedures.
Understanding the nature of reality has been a central theme in philosophy for centuries. Classical science presented a well-defined, deterministic view of reality as objects are governed by clear laws. However, quantum mechanics introduced a radically different perspective that suggests a “quantum reality” where particles exhibit wave-like behavior and defy classical intuitions. This chapter delves into the evolution of reality, exploring its characteristics in classical physics and its transformation in the face of quantum mechanics. One key aspect of quantum reality is the wave function, as in whether the wave function is of reality. The Copenhagen interpretation posits that the wave function is a probabilistic tool, rather than a description of the real state of microscopic particles. However, the fundamental principles of quantum control and the very objects it manipulates challenge this view. By directly or indirectly influencing the wave function, quantum control techniques provide compelling evidence for its quantum reality. The PBR theorem suggests that the wave function reflects a real physical state, not merely a mathematical tool. This chapter argues that the wave function is of the “reality of relative entity-structure”. In addition, the “quantum Cheshire cat” experiment further highlights the unusual nature of quantum reality, which shares some connections with the concept of “Tao” in Chinese Taoism that suggests that everything arises from a fundamental nothingness that itself is real. Quantum technology brings forth a “quantum technological reality” characterized by new properties and applications.