Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory

Polymer plasma produced by laser ablation is investigated in a theoretical manner. In relation to the fact that the charge carrier circulation is assumed to take place on fractal curves, the so-called fractality type, electrical charge transport can be resolved by an extended scale relativity method...

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Main Authors: Maria-Alexandra Paun, Vladimir-Alexandru Paun, Viorel-Puiu Paun
Format: Article
Language:English
Published: MDPI AG 2022-02-01
Series:Entropy
Subjects:
Online Access:https://www.mdpi.com/1099-4300/24/3/342
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author Maria-Alexandra Paun
Vladimir-Alexandru Paun
Viorel-Puiu Paun
author_facet Maria-Alexandra Paun
Vladimir-Alexandru Paun
Viorel-Puiu Paun
author_sort Maria-Alexandra Paun
collection DOAJ
description Polymer plasma produced by laser ablation is investigated in a theoretical manner. In relation to the fact that the charge carrier circulation is assumed to take place on fractal curves, the so-called fractality type, electrical charge transport can be resolved by an extended scale relativity method. In addition, an elegant mathematical model, utilizing a conjecture of fractal space-time, is elaborated. The complete solution and its graphical representation for temperature distribution in two-dimensional and three-dimensional cases are successfully introduced. The discrete physical behavior and irrevocable transformation of nanoscale microdomain substructures by laser ablation are realistically examined. Further, benefiting from the interpretation of the fractal analysis, each of the experimental results can be fairly explained. On top of that, this paper presents a proof of Tsallis nonextensive q-statistics, especially for the plasma plume studied. Tsallis entropy in direct connection with fractal dynamics and chaotic-type mechanics of the plasma plume and time-series representation of plasma temperature is introduced for the first time in the present publication, and the q-statistics of the plume plasma temperature are also studied, among others.
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spelling doaj.art-e4cf7a431b484adb8a992512d3491a972023-11-24T01:07:02ZengMDPI AGEntropy1099-43002022-02-0124334210.3390/e24030342Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: TheoryMaria-Alexandra Paun0Vladimir-Alexandru Paun1Viorel-Puiu Paun2School of Engineering, Swiss Federal Institute of Technology (EPFL), 1015 Lausanne, SwitzerlandFive Rescue Research Laboratory, 75004 Paris, FranceDepartment of Physics, Faculty of Applied Sciences, University Politehnica of Bucharest, 060042 Bucharest, RomaniaPolymer plasma produced by laser ablation is investigated in a theoretical manner. In relation to the fact that the charge carrier circulation is assumed to take place on fractal curves, the so-called fractality type, electrical charge transport can be resolved by an extended scale relativity method. In addition, an elegant mathematical model, utilizing a conjecture of fractal space-time, is elaborated. The complete solution and its graphical representation for temperature distribution in two-dimensional and three-dimensional cases are successfully introduced. The discrete physical behavior and irrevocable transformation of nanoscale microdomain substructures by laser ablation are realistically examined. Further, benefiting from the interpretation of the fractal analysis, each of the experimental results can be fairly explained. On top of that, this paper presents a proof of Tsallis nonextensive q-statistics, especially for the plasma plume studied. Tsallis entropy in direct connection with fractal dynamics and chaotic-type mechanics of the plasma plume and time-series representation of plasma temperature is introduced for the first time in the present publication, and the q-statistics of the plume plasma temperature are also studied, among others.https://www.mdpi.com/1099-4300/24/3/342fractal space-timeTsallis entropypolymerplasmalaser ablation
spellingShingle Maria-Alexandra Paun
Vladimir-Alexandru Paun
Viorel-Puiu Paun
Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
Entropy
fractal space-time
Tsallis entropy
polymer
plasma
laser ablation
title Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
title_full Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
title_fullStr Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
title_full_unstemmed Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
title_short Fractal Modeling of Polymer Plasma Laser Ablation, Plasma Plume Tsallis Entropy and Its q-Statistics Interpretation, Part I: Theory
title_sort fractal modeling of polymer plasma laser ablation plasma plume tsallis entropy and its q statistics interpretation part i theory
topic fractal space-time
Tsallis entropy
polymer
plasma
laser ablation
url https://www.mdpi.com/1099-4300/24/3/342
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