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Quantum epistemology from subquantum ontology: Quantum mechanics from theory of classical random fields

机译:来自Subquantum本体的量子认识论:古典随机场理论的量子力学

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The scientific methodology based on two descriptive levels, ontic (reality as it is) and epistemic (observational), is briefly presented. Following Schrodinger, we point to the possible gap between these two descriptions. Our main aim is to show that, although ontic entities may be unaccessible for observations, they can be useful for clarification of the physical nature of operational epistemic entities. We illustrate this thesis by the concrete example: starting with the concrete ontic model preceding quantum mechanics (the latter is treated as an epistemic model), namely, prequantum classical statistical field theory (PCSFT), we propose the natural physical interpretation for the basic quantum mechanical entity-the quantum state ("wave function"). The correspondence PCSFT bar right arrow QM is not straightforward, it couples the covariance operators of classical (prequantum) random fields with the quantum density operators. We use this correspondence to clarify the physical meaning of the pure quantum state and the superposition principle-by using the formalism of classical field correlations. (C) 2016 Elsevier Inc. All rights reserved.
机译:简要介绍了基于两个描述性水平的科学方法,并介绍了ontic(现实)和认识论的情况(观察到)。在Schrodinger之后,我们指向这两个描述之间的可能间隙。我们的主要目标是表明,尽管Ontic实体可能无法对观察结果无法访问,但它们对于澄清操作性认知实体的物理性质可能有用。我们通过具体示例说明了这篇论文:从前量子力学的混凝土ontic模型开始(后者被视为认知模型),即预挤金典型统计场理论(PCSFT),我们提出了基本量子的自然物理解释机械实体 - 量子状态(“波函数”)。右箭头QM的通信PCSFT杆右箭头QM并不简单,它与量子密度运算符耦合了经典(预QUANTUM)随机字段的协方差运算符。我们使用这种对应关系来阐明纯量子状态的物理含义和叠加原理 - 通过使用经典场相关的形式主义。 (c)2016年Elsevier Inc.保留所有权利。

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