Keppler Joachim
Department of Consciousness Research, DIWISS, Roth, Germany.
Front Psychol. 2020 Jan 10;10:2968. doi: 10.3389/fpsyg.2019.02968. eCollection 2019.
The main goal of this article consists in addressing two fundamental issues of consciousness research and cognitive science, namely, the question of why declarative memory functions are inextricably linked with phenomenal awareness and the question of the physical basis of memory traces. The presented approach proposes that high-level cognitive processes involving consciousness employ a universal mechanism by means of which they access and modulate an omnipresent background field that is identified with the zero-point field (ZPF) specified by stochastic electrodynamics (SED), a branch of physics that deals with the universal principles underlying quantum systems. In addition to its known physical properties and memory capacities, the ZPF is hypothesized to be an immanently sentient medium. It is propounded that linking up to a particular field mode of the ZPF activates a particular phenomenal nuance, implying that the phase-locked coupling of a set of field modes, i.e., the formation of a so-called ZPF information state, constitutes an appropriate mechanism for the amalgamation of elementary shades of consciousness into a complex state of consciousness. Since quantum systems rest exactly on this mechanism, conscious memory processes in the brain are expected to differ from unconscious processes by the presence of the typical features of many-body quantum systems, particularly long-range coherence and attractor formation, which is supported by a huge body of empirical evidence. On this basis, the conceptual framework set out in this article paves the way for a new understanding of the brain as a write-read head interacting with the ZPF, leading to self-consistent interpretations of the neural correlates of memory formation and memory retrieval and explaining why these memory processes are closely intertwined with phenomenal awareness. In particular, the neural correlates suggest that the brain produces consciously perceived memory traces by writing sequences of information states into the ZPF and retrieves consciously experienced memory traces by reading sequences of information states from the ZPF. Using these theoretical foundations, altered states of consciousness and memory disorders can be traced back to impairments of the ZPF write-read mechanism. The mechanism should reveal itself through characteristic photon emissions, resulting in testable predictions.
本文的主要目标在于探讨意识研究和认知科学的两个基本问题,即陈述性记忆功能为何与现象意识紧密相连的问题,以及记忆痕迹的物理基础问题。所提出的方法表明,涉及意识的高级认知过程采用一种通用机制,通过该机制它们能够访问并调节一个无所不在的背景场,该背景场与随机电动力学(SED)所规定的零点场(ZPF)等同,随机电动力学是物理学的一个分支,研究量子系统的普遍原理。除了其已知的物理特性和记忆容量外,零点场还被假定为一种内在有感知的介质。有人提出,与零点场的特定场模式相连接会激活一种特定的现象细微差别,这意味着一组场模式的锁相耦合,即所谓的零点场信息状态的形成,构成了将基本意识层面融合为复杂意识状态的适当机制。由于量子系统正是基于这一机制,大脑中的有意识记忆过程预计会因多体量子系统的典型特征,特别是长程相干性和吸引子形成的存在,而与无意识过程有所不同,这得到了大量经验证据的支持。在此基础上,本文阐述的概念框架为将大脑理解为与零点场相互作用的读写头铺平了道路,从而对记忆形成和记忆检索的神经关联进行自洽的解释,并解释为什么这些记忆过程与现象意识紧密交织。特别是,神经关联表明,大脑通过将信息状态序列写入零点场来产生有意识感知的记忆痕迹,并通过从零点场读取信息状态序列来检索有意识体验的记忆痕迹。利用这些理论基础,意识改变状态和记忆障碍可以追溯到零点场读写机制的损伤。该机制应通过特征性光子发射显现出来,从而产生可测试的预测。