Reality is a word that carries many meanings and subtlely nuanced concepts. In order to have some reliable understanding of what Einstein and Tagore could have meant when they talked about reality, it is necessary to glean their conceptions from a broad survey of their writings and utterances over many years. Tagore's view on reality was strongly epistemological in character. He was by no means an orthodox idealist, as he is often made out to be. The predominant view is that quantum reality is fundamentally different from classical reality. The uncontrollable effect of a measurement on a quantum system makes all observed phenomena intrinsically probabilistic in nature, and the distinction between the observer and the observed is blurred. The putative nonlocality of quantum mechanics is usually inferred from violations of Bell inequalities by entangled quantum states. However, there are many interpretations of quantum mechanics that do away with this controversial postulate, such as Everett's interpretation and its offspring.
Reality is a word that carries many meanings and subtlely nuanced concepts. In order to have some reliable understanding of what Einstein and Tagore could have meant when they talked about reality, it is necessary to glean their conceptions from a broad survey of their writings and utterances over many years. Tagore's view on reality was strongly epistemological in character. He was by no means an orthodox idealist, as he is often made out to be. The predominant view is that quantum reality is fundamentally different from classical reality. The uncontrollable effect of a measurement on a quantum system makes all observed phenomena intrinsically probabilistic in nature, and the distinction between the observer and the observed is blurred. The putative nonlocality of quantum mechanics is usually inferred from violations of Bell inequalities by entangled quantum states. However, there are many interpretations of quantum mechanics that do away with this controversial postulate, such as Everett's interpretation and its offspring.
This paper explores the intersection between Advaita Vedanta's non-dualistic conception of consciousness and the evolving field of quantum physics, offering a dialogue between ancient metaphysical insights and modern scientific thought. Advaita Vedanta, an Indian philosophical tradition, posits that consciousness is the fundamental reality, transcending the material world, which it views as an illusion, or Maya. Similarly, contemporary developments in quantum physics challenge the classical materialistic worldview by revealing that reality, at its most fundamental level, is interconnected, probabilistic, and observer-dependent. This philosophical dialogue aims to bridge these two domains by examining how quantum phenomena, such as wave-particle duality, non-locality, and the observer effect, resonate with Advaita’s concept of Brahman as the ultimate, non-dual consciousness. By exploring parallels between these seemingly disparate fields, this paper questions the limitations of materialistic interpretations of consciousness and proposes that quantum physics could offer a scientific framework to support Advaita’s assertion that consciousness is the substratum of reality. The discussion further investigates how the observer effect in quantum mechanics might align with the Advaitic principle that reality is shaped by consciousness. This study contributes to contemporary debates in the philosophy of mind and philosophy of science by proposing a unified model of consciousness that transcends dualistic divisions between mind and matter, advancing the possibility of a deeper metaphysical understanding of the universe.
This article investigates the compelling parallels between the Vedantic doctrine of Māyā—which describes the phenomenal world as an illusory projection obscuring the non-dual reality of Brahman—and foundational principles in quantum mechanics, particularly those related to measurement and the observer effect. Rooted in Advaita Vedānta, Māyā challenges the reliability of sensory experience and posits consciousness as the substratum of existence. Similarly, quantum theory reveals that the act of observation influences the behaviour of physical systems, as exemplified by wavefunction collapse and quantum indeterminacy. Through a comparative philosophical and scientific inquiry, this article examines how both traditions confront the nature of reality, the limitations of empirical knowledge, and the centrality of the observer. The study highlights convergences in ontological and epistemological concerns, suggesting that despite their methodological differences, Vedānta and quantum mechanics collectively invite a more integrated metaphysical framework for understanding reality.
Purpose: The convergence of ancient metaphysical thought and modern scientific inquiry has increasingly drawn attention to the philosophical parallels between Advaita Vedanta, as expounded in the Upanishads, and modern quantum physics. Both systems, despite their distinct methodologies and epistemological foundations, challenge classical notions of reality, duality, and the role of the observer in the universe. This paper explores key parallels, focusing on concepts such as non-duality (Advaita), the observer effect, quantum entanglement, and the nature of consciousness. The Upanishadic idea of Brahman as the ultimate, indivisible reality aligns intriguingly with quantum physics' understanding of non-locality and the interconnectedness of particles. Methodology: In this paper, the exploratory qualitative research method is used. The relevant information is collected using keyword-based search in Google search engine, Google Scholar search engine, and AI-driven GPTs. This information is analysed and interpreted as per the objectives of the paper. Originality/ Values: The observer-dependent nature of quantum measurement resonates with the Upanishadic assertion that reality is shaped by consciousness (Chaitanya). By conducting a comparative analysis, this research aims to bridge the gap between spiritual philosophy and empirical science, offering new perspectives on the nature of existence, perception, and the fabric of reality. Results/Analysis: Ultimately, the convergence of Advaita Vedanta and quantum physics reminds us of the vast depths of reality that lie beyond our everyday perception. It invites us to approach life with humility, openness, and a willingness to embrace the unknown. Type of Paper: Exploratory Research.
Taking into account the results that we have been obtained during the last decade in the foundations of quantum mechanic we put forward a view on reality that we call the 'creation discovery view'. In this view it is made explicit that a measurement is an act of a macroscopic physical entity on a microphysical entity that entails the creation of new elements of reality as well as the detection of existing elements of reality. Within this view most of the quantum mechanical paradoxes are due to structural shortcomings of the standard quantum theory, which means that our analysis agrees with the claim made in the Einstein Podolsky Rosen paper, namely that standards quantum mechanics is an incomplete theory. This incompleteness is however not due to the absence of hidden variables but to the impossibility for standard quantum mechanics to describe separated quantum entities. Nonlocality appears as a genuine property of nature in our view and makes it necessary to reconsider the role of space in reality. Our proposal for a new interpretation for space makes it possible to put forward an new hypothesis for why it has not been possible to unify quantum mechanics and relativity theory.
Orthodox quantum mechanics, or at least some extreme interpretations of it, adopts a nonrealistic stance by assuming, in its fifth, or reduction postulate, that Reality is, in last instance, a making of the observer consciousness. The enormous empirical success of orthodox quantum mechanics lead most of the scientific community to accept without reserve this highly idealistic posture even without fully realizing its deep implications. Now, almost a century after its formulation, a return to a realistic view of Physics seems possible.