Method of Processing, Analyzing, and Predicting Characteristics of Radiation Fluxes by Small-Volume Samples

A method has been proposed to process and analyze the proximity by type-defining characteristics of large aggregations M > 104 of various types Q > 102 of empirical discrete random frequency vectors RFV ≡ $$\nu ( \cdot ) = {{\nu }_{0}},~...~,{{\nu }_{l}}$$ obtained from small volume samples $$10 \geqslant n = \sum\nolimits_{i = 1}^l {{{\nu }_{i}}(k = i)} $$ of random counts k = 0, 1, …, l with mean value $$\bar {k} < 5$$ over all samples. The method is based on a bijection between the RFV and its type-defining identifier $$I(\nu ,a) > 0$$ a) > 0, which is a linear statistic in the form of the scalar product of ν and the non-RFV a. The discrete multimodal empirical distributions $$C\left( {I(\nu ,a)} \right)$$ representing sequences of arranged by $$I(\nu ,a)$$ and grouped peaks facilitate the analysis and prediction of the characteristics of peaks and the RFVs forming them with low frequencies of their occurrences at the given M value.

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Publication Details

Journal
Physics of Atomic Nuclei
Published
2024-12-01
DOI
https://doi.org/10.1134/s106377882409028x
Primary Topic
Graphite, nuclear technology, radiation studies
Type
article
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article

Method of Processing, Analyzing, and Predicting Characteristics of Radiation Fluxes by Small-Volume Samples

V. A. Rabotkin, N. M. Blizniakov, V. M. Vahtel, D. E. Kostomakha
Physics of Atomic Nuclei
Graphite, nuclear technology, radiation studies
article

Method of Processing, Analyzing, and Predicting Characteristics of Radiation Fluxes by Small-Volume Samples

V. A. Rabotkin, N. M. Blizniakov, V. M. Vahtel, D. E. Kostomakha
article en

Abstract

A method has been proposed to process and analyze the proximity by type-defining characteristics of large aggregations M > 104 of various types Q > 102 of empirical discrete random frequency vectors RFV ≡ $$\nu ( \cdot ) = {{\nu }_{0}},~...~,{{\nu }_{l}}$$ obtained from small volume samples $$10 \geqslant n = \sum\nolimits_{i = 1}^l {{{\nu }_{i}}(k = i)} $$ of random counts k = 0, 1, …, l with mean value $$\bar {k} < 5$$ over all samples. The method is based on a bijection between the RFV and its type-defining identifier $$I(\nu ,a) > 0$$ a) > 0, which is a linear statistic in the form of the scalar product of ν and the non-RFV a. The discrete multimodal empirical distributions $$C\left( {I(\nu ,a)} \right)$$ representing sequences of arranged by $$I(\nu ,a)$$ and grouped peaks facilitate the analysis and prediction of the characteristics of peaks and the RFVs forming them with low frequencies of their occurrences at the given M value.

Physics of Atomic NucleiVol. 87(12)
Voronezh State University (RU)
Openalex Percentile: Top 83%
Graphite, nuclear technology, radiation studies
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