Application of Partials Differential Equations in Plasma Physics: P. 2
New Mathematical Model in irreversibleThermodynamics
Versandkostenfrei!
Versandfertig in 6-10 Tagen
59,99 €
inkl. MwSt.
PAYBACK Punkte
30 °P sammeln!
Authors introduced advanced applications of partial differential equations in plasma physics using analytical methods based on Boltzmann-Maxwell equations. The book creates theoretical tools for predicting and controlling plasma behavior in many outstanding applications. To the best of our knowledge, we introduced a new mathematical model for calculating the thermodynamic forces, kinetic coefficients, and flux variables as two new scientific achievements. Second, with reasonable accuracy, we determined the equilibrium time of electrons and positive ions under an electromagnetic forces. Authors...
Authors introduced advanced applications of partial differential equations in plasma physics using analytical methods based on Boltzmann-Maxwell equations. The book creates theoretical tools for predicting and controlling plasma behavior in many outstanding applications. To the best of our knowledge, we introduced a new mathematical model for calculating the thermodynamic forces, kinetic coefficients, and flux variables as two new scientific achievements. Second, with reasonable accuracy, we determined the equilibrium time of electrons and positive ions under an electromagnetic forces. Authors clarify the difference between an equilibrium velocity distribution function and a perturbed one. The book introduces the extended Gibbs equation, which predicts ratios between various contributions to the internal energy change for diamagnetic and paramagnetic plasmas. A standard laboratory argon plasma model is used to apply the results. This book advances our understanding of plasma physics and holds immense potential for practical applications in aerospace engineering, plasma technology, materials science. This book lays the groundwork for future innovations and technological advance.
Andere Kunden interessierten sich für
