An Analytical Model for the Time Distribution of Muonic Oxygen X-Rays in Muonic Experiments

We propose an analytical model and perform numerical simulations to study the time distribution of the characteristic muonic oxygen X-ray emission following muon transfer from muonic hydrogen to oxygen in a H2 + O2 gas mixture. The model accounts for all fundamental processes that alter the kinetic energy and spin distribution of muonic hydrogen atoms. The impact of the uncertainties in various experimental parameters on the precision of the computed results is studied in detail by means of the Monte Carlo method. Specifically, we observe the presence of a minimum in the time dependence of the relative standard deviation of X-ray emission for realistic parameter combinations, which can serve as a benchmark for comparing experiments and numerical simulations. Verification against available experimental data reveals the potential of this approach for both description and parameter optimization in the planning and analysis of muonic experiments

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Publication Details

Journal
Atoms
Published
2026-04-27
DOI
https://doi.org/10.3390/atoms14050037
Primary Topic
Muon and positron interactions and applications
Type
article
Field-Weighted Citation Impact
0.00
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article

An Analytical Model for the Time Distribution of Muonic Oxygen X-Rays in Muonic Experiments

Petar Danev, Hristo Tonchev, Iavor Boradjiev
Atoms
Muon and positron interactions and applications
article

An Analytical Model for the Time Distribution of Muonic Oxygen X-Rays in Muonic Experiments

Petar Danev, Hristo Tonchev, Iavor Boradjiev
article en

Abstract

We propose an analytical model and perform numerical simulations to study the time distribution of the characteristic muonic oxygen X-ray emission following muon transfer from muonic hydrogen to oxygen in a H2 + O2 gas mixture. The model accounts for all fundamental processes that alter the kinetic energy and spin distribution of muonic hydrogen atoms. The impact of the uncertainties in various experimental parameters on the precision of the computed results is studied in detail by means of the Monte Carlo method. Specifically, we observe the presence of a minimum in the time dependence of the relative standard deviation of X-ray emission for realistic parameter combinations, which can serve as a benchmark for comparing experiments and numerical simulations. Verification against available experimental data reveals the potential of this approach for both description and parameter optimization in the planning and analysis of muonic experiments

AtomsVol. 14(5)
University of Architecture, Civil Engineering and Geodesy (BG), Bulgarian Academy of Sciences (BG), Institute for Nuclear Research and Nuclear Energy (BG)
Openalex Percentile: Top 7%
Muon and positron interactions and applications
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