QUANTUM MEMORY, ATOMIC RELATIONS, AND INFORMATIONAL CONTINUITY

This article develops an expanded critical-propositional analysis of K. Jensen et al.’s experiment, “Quantum Memory for Entangled Continuous-Variable States,” pub- lished in Nature Physics 7 (2011): 13–16, in systematic dialogue with the Theory of Objectivity (TO) formulated by Vidamor Cabannas and Denivaldo Silva. Jensen et al. demonstrated a quantum memory for continuous-variable entangled optical states by transferring quantum information carried by two-mode squeezed light into two spatially separated room-temperature cesium ensembles. The input states exhibited approximately 6.0 dB two-mode squeezing; the two components were stored in atomic cells separated by approximately 0.5 m; the storage time was approximately 1 ms; and the reported experimental memory fidelity, Fexp = 0.52 ± 0.02, exceeded a rigorously established classical benchmark of approximately Fcl ≈ 0.45 for the relevant ensemble of displaced squeezed states (Jensen et al., 2011; Owari et al., 2008). These results provide a controlled experimental example in which nonclassical informational structure initially instantiated in electromagnetic radiation is mapped onto collective atomic degrees of freedom and remains recoverable after a finite storage interval. The analysis confronts this result with the Seven Absolute Truths of the Theory of Objectivity, paying particular attention to the modal status attributed to TO’s axioms. The First Absolute Truth is interpreted according to TO’s proposition that before the Universe arose there was Nothing, while this Nothing is not absolute nonbeing but a logical, mathematical, and eternal essence. The quantum vacuum used by continuous- variable quantum optics is therefore sharply distinguished from TO’s primordial logical Nothingness. The Second Absolute Truth states that every element possesses its own exclusive magnetic field, individualizing it in relation to other elements. Jensen et al.’s experiment is highly dependent on magnetic fields, atomic spin orientation, and Larmor precession, but it does not independently establish the universal existence of an ontologically unique magnetic field for every element. The Fifth Absolute Truth states that an element, in order to possess logical existence, must be observed or fall within the frequency relation of at least two other elements, where observation is entirely non-anthropocentric. The light–atom–control-field architecture of the experiment provides a particularly suggestive operational analogy with this relational proposition, although it does not establish its universal modal necessity. Special emphasis is placed on TO’s Seventh Absolute Truth and on its conception of the transcendent element as knowledge or information generated in atomic relations and treated by TO as equivalent to atomic radiation. Jensen et al. establish experimentally that quantum information can be transferred from propagating electromagnetic modes to collective atomic variables and later accessed through measurement. This provides a potentially important empirical bridge for TO. However, the experiment does not establish an ontological identity between information and atomic radiation. A decisive empirical test would require TO to derive quantitative predictions linking measurable information- theoretic quantities to specific radiative observables in a manner not already implied by standard quantum theory. The article further articulates the experiment with TO’s phenomenic elements, Inducing Effects, cosmogonic theorem, cosmological Eras, modal discipline, Law of Logical Minimum, and recent operational program. It concludes that Jensen et al. provide strong indirect empirical compatibility with TO’s relational and informational architecture, espe- cially concerning boundaries, interaction, composition, frequency-governed relations, and physically instantiated information. Yet the results remain fully describable within con- ventional quantum theory and therefore cannot by themselves constitute unique empirical confirmation of TO. On a proposed scale from zero to ten measuring the depth of productive dialogue between an external scientific work and the Theory of Objectivity, Jensen et al.’s experiment is assigned 8.3/10 , corresponding to a very high degree of conceptual and operational relevance but not to exclusive empirical confirmation. Keywords: Theory of Objectivity; quantum memory; continuous variables; entanglement; EPR correlations; atomic ensembles; information; radiation; modal necessity; quantum measurement; light–matter interface; Inducing Effects; cosmology; epistemology.

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Publication Details

Journal
Open Science Framework
Published
2026-09-16
DOI
https://doi.org/10.17605/osf.io/x6vec
Primary Topic
Quantum Mechanics and Applications
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QUANTUM MEMORY, ATOMIC RELATIONS, AND INFORMATIONAL CONTINUITY

Vidamor Cabannas
Open Science Framework
Quantum Mechanics and Applications
article

QUANTUM MEMORY, ATOMIC RELATIONS, AND INFORMATIONAL CONTINUITY

Vidamor Cabannas
article en

Abstract

This article develops an expanded critical-propositional analysis of K. Jensen et al.’s experiment, “Quantum Memory for Entangled Continuous-Variable States,” pub- lished in Nature Physics 7 (2011): 13–16, in systematic dialogue with the Theory of Objectivity (TO) formulated by Vidamor Cabannas and Denivaldo Silva. Jensen et al. demonstrated a quantum memory for continuous-variable entangled optical states by transferring quantum information carried by two-mode squeezed light into two spatially separated room-temperature cesium ensembles. The input states exhibited approximately 6.0 dB two-mode squeezing; the two components were stored in atomic cells separated by approximately 0.5 m; the storage time was approximately 1 ms; and the reported experimental memory fidelity, Fexp = 0.52 ± 0.02, exceeded a rigorously established classical benchmark of approximately Fcl ≈ 0.45 for the relevant ensemble of displaced squeezed states (Jensen et al., 2011; Owari et al., 2008). These results provide a controlled experimental example in which nonclassical informational structure initially instantiated in electromagnetic radiation is mapped onto collective atomic degrees of freedom and remains recoverable after a finite storage interval. The analysis confronts this result with the Seven Absolute Truths of the Theory of Objectivity, paying particular attention to the modal status attributed to TO’s axioms. The First Absolute Truth is interpreted according to TO’s proposition that before the Universe arose there was Nothing, while this Nothing is not absolute nonbeing but a logical, mathematical, and eternal essence. The quantum vacuum used by continuous- variable quantum optics is therefore sharply distinguished from TO’s primordial logical Nothingness. The Second Absolute Truth states that every element possesses its own exclusive magnetic field, individualizing it in relation to other elements. Jensen et al.’s experiment is highly dependent on magnetic fields, atomic spin orientation, and Larmor precession, but it does not independently establish the universal existence of an ontologically unique magnetic field for every element. The Fifth Absolute Truth states that an element, in order to possess logical existence, must be observed or fall within the frequency relation of at least two other elements, where observation is entirely non-anthropocentric. The light–atom–control-field architecture of the experiment provides a particularly suggestive operational analogy with this relational proposition, although it does not establish its universal modal necessity. Special emphasis is placed on TO’s Seventh Absolute Truth and on its conception of the transcendent element as knowledge or information generated in atomic relations and treated by TO as equivalent to atomic radiation. Jensen et al. establish experimentally that quantum information can be transferred from propagating electromagnetic modes to collective atomic variables and later accessed through measurement. This provides a potentially important empirical bridge for TO. However, the experiment does not establish an ontological identity between information and atomic radiation. A decisive empirical test would require TO to derive quantitative predictions linking measurable information- theoretic quantities to specific radiative observables in a manner not already implied by standard quantum theory. The article further articulates the experiment with TO’s phenomenic elements, Inducing Effects, cosmogonic theorem, cosmological Eras, modal discipline, Law of Logical Minimum, and recent operational program. It concludes that Jensen et al. provide strong indirect empirical compatibility with TO’s relational and informational architecture, espe- cially concerning boundaries, interaction, composition, frequency-governed relations, and physically instantiated information. Yet the results remain fully describable within con- ventional quantum theory and therefore cannot by themselves constitute unique empirical confirmation of TO. On a proposed scale from zero to ten measuring the depth of productive dialogue between an external scientific work and the Theory of Objectivity, Jensen et al.’s experiment is assigned 8.3/10 , corresponding to a very high degree of conceptual and operational relevance but not to exclusive empirical confirmation. Keywords: Theory of Objectivity; quantum memory; continuous variables; entanglement; EPR correlations; atomic ensembles; information; radiation; modal necessity; quantum measurement; light–matter interface; Inducing Effects; cosmology; epistemology.

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