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Induced Coherence in Radioactive Decay Rates: A Quantum Zeno Approach to Synchronized Nuclear Fission via Borane Confinement

Martin Kováč

Published Feb 28, 2026• 0 citations
Publisher

Abstract

The continuous observation of a quantum system is known to suppress its time evolution, a phenomenon recognized as the Quantum Zeno Effect (QZE). While typically applied to discrete atomic transitions and two-level open quantum systems, extending this principle to nuclear decay processes offers profound implications for controlling nuclear fission. In this paper, we hypothesize a novel containment architecture utilizing closo-borane and nido-borane molecular cages (e.g., B12H122−) as resonant structural cavities. By embedding metastable isotopes within these cages and subjecting the system to continuous, specific electromagnetic excitation, the secondary fluorescence of the cage acts as an unbroken projective measurement. This continuous interaction effectively confines the nuclear state vector to its initial unstable sub-space. Furthermore, we theorize that the simultaneous removal of this monitoring field across a bulk medium of confined isotopes will lead to a highly correlated release from the Zeno-suppressed state. Drawing parallels to Dicke superradiance, this sudden restoration of normal decay channels in a dense, heavily correlated macroscopic ensemble precipitates an avalanche of stimulated nuclear transitions, acting as a triggered synchronization of fission without the traditional critical mass requirements.

DOI
10.5281/zenodo.18813344

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arXiv:1209.3136•Journal of the Physical Society of Japan•Dec 15, 2015•1 citation
The continuous observation of a quantum system is known to suppress its time evolution, a phenomenon recognized as the Quantum Zeno Effect (QZE). While typically applied to discrete atomic transitions and two-level open quantum systems, extending this principle to nuclear decay processes offers profound implications for controlling nuclear fission. In this paper, we hypothesize a novel containment architecture utilizing closo-borane and nido-borane molecular cages (e.g., B12H122−) as resonant structural cavities. By embedding metastable isotopes within these cages and subjecting the system to continuous, specific electromagnetic excitation, the secondary fluorescence of the cage acts as an unbroken projective measurement. This continuous interaction effectively confines the nuclear state vector to its initial unstable sub-space. Furthermore, we theorize that the simultaneous removal of this monitoring field across a bulk medium of confined isotopes will lead to a highly correlated release from the Zeno-suppressed state. Drawing parallels to Dicke superradiance, this sudden restoration of normal decay channels in a dense, heavily correlated macroscopic ensemble precipitates an avalanche of stimulated nuclear transitions, acting as a triggered synchronization of fission without the traditional critical mass requirements.
The continuous observation of a quantum system is known to suppress its time evolution, a phenomenon recognized as the Quantum Zeno Effect (QZE). While typically applied to discrete atomic transitions, extending this principle to nuclear decay processes offers profound implications for controlling nuclear fission. In this paper, we hypothesize a containment architecture utilizing endohedral buckminsterfullerenes (M@C60) as resonant structural cavities for metastable isotopes. The carbon-12 matrix provides a spin-zero, decoherence-free boundary, severely limiting magnetic interactions. By subjecting the system to continuous electromagnetic excitation, the secondary fluorescence of the cage acts as an unbroken projective measurement, effectively confining the nuclear state vector to its initial unstable sub-space. Furthermore, we theorize that the simultaneous removal of this monitoring field across a bulk medium of confined isotopes will lead to a highly correlated release from the Zeno-suppressed state. Drawing parallels to Dicke superradiance, this sudden restoration of normal decay channels in a dense, heavily correlated macroscopic ensemble precipitates an avalanche of stimulated nuclear transitions, acting as a triggered synchronization of fission.
Traditional initiation of nuclear fission requires active energy delivery or the achievement of critical mass through physical compression. This paper proposes an inverse paradigm: a "fail-deadly" nuclear trigger activated by the sudden absence of a stabilizing signal. By utilizing the Quantum Zeno Effect (QZE) within resonant molecular cages (endohedral fullerenes and closo-boranes), unstable isotopes can be maintained in a frozen, highly correlated phase state via continuous electromagnetic measurement. The loss of this signal acts as a trigger, leading to immediate Dicke superradiance and a synchronized nuclear avalanche. This paper further analyzes the divergent post-initiation behaviors: while the fullerene matrix (M@C60) functions as a transparent macroscopic emitter of thermalized neutrons, the borane matrix acts as an intrinsic absorber, converting the released nuclear energy into a strict, localized thermal pulse.
This paper explores the intersection of solid-state physics and geochemistry, proposing a mechanism for the environmental modulation of nuclear decay rates. Moving beyond the concept of decay as a fixed stochastic constant, we analyze how high-symmetry mineral lattices (such as zircons, zeolites, and beryls) can act as natural quantum resonators. Using the framework of the Quantum Zeno Effect (QZE), we demonstrate how the structural symmetry of crystalline cavities, "activated" by the Earth's geomagnetic field (GMF), suppresses nuclear decay pathways. Key highlights: Lattice-Locking: How periodic crystalline potentials restrict the phase space of decay products. Geomagnetic Activation: The role of the Earth's field in maintaining quantum coherence within mineral traps. Geochemical Implications: A new perspective on isotopic anomalies and the potential variability of the geochronological clock during geomagnetic excursions. This research provides a deterministic approach to isotope stability, bridging quantum optics with mineralogical science.
The quantum Zeno effect (QZE) predicts that frequent measurement of an unstable quantum system suppresses its decay by repeatedly collapsing the wavefunction back to the undecayed state. However, experimentally confirmed results show that the QZE is fundamentally unattainable for radioactive or radiative decay, because the measurement rates required would destroy the system. We identify a distinct but phenomenologically analogous mechanism within the Stochastic Rupture (SR) framework: informational isolation. In SR, collapse occurs when the local von Neumann entropy approaches the Bousso-bounded informational capacity, SvN → η IBousso. A system that is informationally isolated from its environment — such as a single atom in vacuum, or a system inside a Casimir cavity with suppressed vacuum modes — has a reduced local saturation fraction I, and therefore a suppressed collapse rate. This is decay suppression without measurement, without observer, and without the destructive back-action that kills the standard QZE for radioactive systems. Unlike CSL and Diósi–Penrose, which predict measurable heating of diffuse cosmological matter at rates incompatible with Lyman-α forest and CMB temperature constraints, the SR mechanism is structurally silent in low-saturation environments: the collapse rate vanishes identically when I ≪ 1, independently of particle number or system mass. Informational isolation is thus not merely an analogue of the quantum Zeno effect — it is the same threshold geometry that resolves the cosmological heating problem of competing collapse models, and constitutes a necessary condition for any objective collapse theory to survive cosmological scrutiny. We derive the SR prediction for the suppression factor as a function of environmental mode density and identify two distinct regimes. In the low-saturation regime (I ≪ 1) accessible to current cavity QED, SR reduces exactly to Purcell physics and is not experimentally distinguishable from standard quantum optics. The genuinely SR-specific signature emerges only in the high-saturation regime (I → η), where the runaway factor (1 − I/η)−1 amplifies environmental modulation nonlinearly. This regime is accessible only at macroscopic mass scales (~109 –1010 amu, the MAQRO regime), where the SR discriminator combines with the σ x −2 scaling signature distinguishing SR from CSL and DP. The Casimir-cavity proposal is therefore reframed as a conceptual benchmark rather than a near-term experiment.
The quantum Zeno effect (QZE) is the striking prediction that the decay of any unstable quantum state can be inhibited by sufficiently frequent observations (measurements). The consensus opinion has upheld the QZE as a general feature of quantum mechanics, which should lead to the inhibition of any decay. The claim of QZE generality hinges on the assumption that successive observations can in principle be made at time intervals too short for the system to change appreciably. However, this assumption and the generality of the QZE have scarcely been investigated thus far. We have addressed these issues by showing that (i) the QZE is principally unattainable in radiative or radioactive decay, because the required measurement rates would cause the system to disintegrate; (ii) decay acceleration by frequent measurements (the anti-Zeno effect -- AZE) is much more ubiquitous than its inhibition. The AZE is shown to be observable as the enhancement of tunneling rates (e.g., for atoms trapped in ramped-up potentials or in current-swept Josephson junctions), fluorescence rates (e.g., for Rydberg atoms perturbed by noisy optical fields) and photon depolarization rates (in randomly modulated Pockels cells).