Hamiltonian map description of electron dynamics in gyrotrons

Electron dynamics in gyrotron resonators are described in terms of a Hamiltonian map. This map incorporates the dependency of electron dynamics on the parameters of the interacting radio-frequency (RF) field and it can be used for trajectory calculations through successive iteration, resulting in a...

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Veröffentlicht in:IEEE transactions on plasma science 2006-06, Vol.34 (3), p.673-680
Hauptverfasser: Dumbrajs, O., Kominis, Y., Avramides, K.A., Hizanidis, K., Vomvoridis, J.L.
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container_issue 3
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container_title IEEE transactions on plasma science
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creator Dumbrajs, O.
Kominis, Y.
Avramides, K.A.
Hizanidis, K.
Vomvoridis, J.L.
description Electron dynamics in gyrotron resonators are described in terms of a Hamiltonian map. This map incorporates the dependency of electron dynamics on the parameters of the interacting radio-frequency (RF) field and it can be used for trajectory calculations through successive iteration, resulting in a symplectic integration scheme. The direct relation of the map to the physics of the model, along with its canonical form (phase space volume preserving) and the significant reduction of the number of iteration steps required for acceptable accuracy, are the main advantages of this method in comparison with standard methods such as Runge-Kutta. The general form of the Hamiltonian map allows for wide applications as a part of several numerical algorithms which incorporate CPU-consuming electron trajectories calculations
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subjects Acceptability
Cyclotrons
Dynamics
Electromagnetic heating
Electron tubes
Electrons
Equations
Fusion reactor design
Gyrotrons
Hamiltonian mappings
Iterative methods
Mathematical models
microwave sources
Physics
Radio frequency
Resonators
Runge-Kutta method
symplectic integration
Tokamaks
Trajectory
title Hamiltonian map description of electron dynamics in gyrotrons
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