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Inspection—corruption game of illegal logging and other violations : Generalized evolutionary approach. / Kolokoltsov, Vassili N.

в: Mathematics, Том 9, № 14, 1619, 09.07.2021.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

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@article{1db980a4215f421db5dd076492ce2803,
title = "Inspection—corruption game of illegal logging and other violations: Generalized evolutionary approach",
abstract = "Games of inspection and corruption are well developed in the game-theoretic literature. However, there are only a few publications that approach these problems from the evolutionary point of view. In previous papers of this author, a generalization of the replicator dynamics of the evolutionary game theory was suggested for inspection modeling, namely the pressure and resistance framework, where a large pool of small players plays against a distinguished major player and evolves according to certain myopic rules. In this paper, we develop this approach further in a setting of the two-level hierarchy, where a local inspector can be corrupted and is further controlled by the higher authority (thus combining the modeling of inspection and corruption in a unifying setting). Mathematical novelty arising in this investigation involves the analysis of the generalized replicator dynamics (or kinetic equation) with switching, which occurs on the “efficient frontier of corruption”. We try to avoid parameters that are difficult to observe or measure, leading to some clear practical consequences. We prove a result that can be called the “principle of quadratic fines”: We show that if the fine for violations (both for criminal businesses and corrupted inspectors) is proportional to the level of violations, the stable rest points of the dynamics support the maximal possible level of both corruption and violation. The situation changes if a convex fine is introduced. In particular, starting from the quadratic growth of the fine function, one can effectively control the level of violations. Concrete settings that we have in mind are illegal logging, the sales of products with substandard quality, and tax evasion.",
keywords = "Approximate Nash equilibria, Corruption, Dynamic law of large numbers, Efficient frontier of corruption, Evolutionary games, Illegal logging, Inspection, Pressure and resistance games, Principle of quadratic fines, Stable equilibria, Substandard quality, Tax evasion, substandard quality, efficient frontier of corruption, stable equilibria, pressure and resistance games, approximate Nash equilibria, principle of quadratic fines, illegal logging, evolutionary games, tax evasion, corruption, dynamic law of large numbers, inspection",
author = "Kolokoltsov, {Vassili N.}",
note = "Publisher Copyright: {\textcopyright} 2021 by the authors. Licensee MDPI, Basel, Switzerland.",
year = "2021",
month = jul,
day = "9",
doi = "10.3390/math9141619",
language = "English",
volume = "9",
journal = "Mathematics",
issn = "2227-7390",
publisher = "MDPI AG",
number = "14",

}

RIS

TY - JOUR

T1 - Inspection—corruption game of illegal logging and other violations

T2 - Generalized evolutionary approach

AU - Kolokoltsov, Vassili N.

N1 - Publisher Copyright: © 2021 by the authors. Licensee MDPI, Basel, Switzerland.

PY - 2021/7/9

Y1 - 2021/7/9

N2 - Games of inspection and corruption are well developed in the game-theoretic literature. However, there are only a few publications that approach these problems from the evolutionary point of view. In previous papers of this author, a generalization of the replicator dynamics of the evolutionary game theory was suggested for inspection modeling, namely the pressure and resistance framework, where a large pool of small players plays against a distinguished major player and evolves according to certain myopic rules. In this paper, we develop this approach further in a setting of the two-level hierarchy, where a local inspector can be corrupted and is further controlled by the higher authority (thus combining the modeling of inspection and corruption in a unifying setting). Mathematical novelty arising in this investigation involves the analysis of the generalized replicator dynamics (or kinetic equation) with switching, which occurs on the “efficient frontier of corruption”. We try to avoid parameters that are difficult to observe or measure, leading to some clear practical consequences. We prove a result that can be called the “principle of quadratic fines”: We show that if the fine for violations (both for criminal businesses and corrupted inspectors) is proportional to the level of violations, the stable rest points of the dynamics support the maximal possible level of both corruption and violation. The situation changes if a convex fine is introduced. In particular, starting from the quadratic growth of the fine function, one can effectively control the level of violations. Concrete settings that we have in mind are illegal logging, the sales of products with substandard quality, and tax evasion.

AB - Games of inspection and corruption are well developed in the game-theoretic literature. However, there are only a few publications that approach these problems from the evolutionary point of view. In previous papers of this author, a generalization of the replicator dynamics of the evolutionary game theory was suggested for inspection modeling, namely the pressure and resistance framework, where a large pool of small players plays against a distinguished major player and evolves according to certain myopic rules. In this paper, we develop this approach further in a setting of the two-level hierarchy, where a local inspector can be corrupted and is further controlled by the higher authority (thus combining the modeling of inspection and corruption in a unifying setting). Mathematical novelty arising in this investigation involves the analysis of the generalized replicator dynamics (or kinetic equation) with switching, which occurs on the “efficient frontier of corruption”. We try to avoid parameters that are difficult to observe or measure, leading to some clear practical consequences. We prove a result that can be called the “principle of quadratic fines”: We show that if the fine for violations (both for criminal businesses and corrupted inspectors) is proportional to the level of violations, the stable rest points of the dynamics support the maximal possible level of both corruption and violation. The situation changes if a convex fine is introduced. In particular, starting from the quadratic growth of the fine function, one can effectively control the level of violations. Concrete settings that we have in mind are illegal logging, the sales of products with substandard quality, and tax evasion.

KW - Approximate Nash equilibria

KW - Corruption

KW - Dynamic law of large numbers

KW - Efficient frontier of corruption

KW - Evolutionary games

KW - Illegal logging

KW - Inspection

KW - Pressure and resistance games

KW - Principle of quadratic fines

KW - Stable equilibria

KW - Substandard quality

KW - Tax evasion

KW - substandard quality

KW - efficient frontier of corruption

KW - stable equilibria

KW - pressure and resistance games

KW - approximate Nash equilibria

KW - principle of quadratic fines

KW - illegal logging

KW - evolutionary games

KW - tax evasion

KW - corruption

KW - dynamic law of large numbers

KW - inspection

UR - http://www.scopus.com/inward/record.url?scp=85110672618&partnerID=8YFLogxK

U2 - 10.3390/math9141619

DO - 10.3390/math9141619

M3 - Article

AN - SCOPUS:85110672618

VL - 9

JO - Mathematics

JF - Mathematics

SN - 2227-7390

IS - 14

M1 - 1619

ER -

ID: 86493115