02091nam 2200529Ia 450 991070013940332120110311162314.0(CKB)5470000002407574(OCoLC)706833699(EXLCZ)99547000000240757420110311d2010 ua 0engurmn|||||||||txtrdacontentcrdamediacrrdacarrierTest results from a high power linear alternator test rig[electronic resource] /Arthur G. Birchenough and David S. Hervol, Brent G. Gardner ; prepared for the 8th International Energy Conversion Engineering Conference (IECEC) sponsored by the American Institute of Aeronautics and Astronautics, Nashville, Tennessee, July 25-28, 2010Cleveland, Ohio :National Aeronautics and Space Administration, Glenn Research Center,[2010]1 online resource (10 pages) illustrations (color)NASA/TM ;2010-216910Title from title screen (viewed on March 11, 2011)."November 2010.""AIAA-2010-6691."Includes bibliographical references (page 10).RectificationnasatLinear alternatorsnasatHigh voltagesnasatAC generatorsnasatStirling enginesnasatThermodynamic efficiencynasatRectification.Linear alternators.High voltages.AC generators.Stirling engines.Thermodynamic efficiency.Birchenough Arthur G1391957Hervol David S1408110Gardner Brent G1408111NASA Glenn Research Center.International Energy Conversion Engineering Conference(8th :2010 :Nashville, Tenn.)GPOGPOBOOK9910700139403321Test results from a high power linear alternator test rig3491217UNINA04745nam 2200649 450 991080782480332120221205114134.03-527-67734-83-527-67737-23-527-67736-4(CKB)3710000000303790(EBL)1873195(SSID)ssj0001412145(PQKBManifestationID)11889215(PQKBTitleCode)TC0001412145(PQKBWorkID)11408687(PQKB)10326359(MiAaPQ)EBC1873195(MiAaPQ)EBC4044557(Au-PeEL)EBL1873195(CaPaEBR)ebr10991564(CaONFJC)MIL666114(OCoLC)899008684(EXLCZ)99371000000030379020141210h20152015 uy| 0engur|n|---|||||txtccrMagnetohydrodynamic stability of tokamaks /Hartmut ZohmWeinheim, Germany :Wiley-VCH Verlag GmbH & Company KGaA,[2015]©20151 online resource (256 p.)Description based upon print version of record.1-322-34832-4 3-527-41232-8 Includes bibliographical references and index.Magnetohydrodynamic Stability of Tokamaks; Contents; Preface; Chapter 1 The MHD Equations; 1.1 Derivation of the MHD Equations; 1.1.1 Multispecies MHD Equations; 1.1.2 One-Fluid Model of Magnetohydrodynamics; 1.1.3 Validity of the One-Fluid Model of Magnetohydrodynamics; 1.2 Consequences of the MHD Equations; 1.2.1 Magnetic Flux Conservation; 1.2.2 MHD Equilibrium; 1.2.3 Magnetohydrodynamic Waves; 1.2.3.1 Compressional Alfvén Waves; 1.2.3.2 Shear Alfvén Waves; Chapter 2 MHD Equilibria in Fusion Plasmas; 2.1 Linear Configurations; 2.1.1 The z-Pinch; 2.1.2 The Screw Pinch2.2 Toroidal Configurations2.2.1 The Tokamak; 2.2.1.1 The Grad-Shafranov Equation; 2.2.1.2 Circular Cross Section; 2.2.1.3 Arbitrary Cross Section; 2.2.1.4 The Straight Field Line Angle; 2.2.2 The Stellarator; Chapter 3 Linear Ideal MHD Stability Analysis; 3.1 Linear MHD Stability as an Initial Value Problem; 3.2 The Energy Principle of Ideal MHD; 3.3 Forms of δW; 3.4 The Ideal MHD Energy Principle for the Tokamak; Chapter 4 Current Driven Ideal MHD Modes in a Tokamak; 4.1 Expression for δW in Tokamak Ordering; 4.2 External Kinks in a Tokamak with β = 0; 4.2.1 Modes with m=16.4.1 Small ELM Regimes6.4.2 Active ELM Control; Chapter 7 Combined Pressure and Current Driven Modes: The Ideal β-Limit; 7.1 Tokamak Operational Scenarios; 7.2 External Kink Modes in a Tokamak with Finite β; 7.3 The Effect of a Conducting Wall on External Kink Modes; 7.3.1 Ideally Conducting Wall; 7.3.2 Resistive Wall; 7.4 The Resistive Wall Mode (RWM); 7.5 The Troyon Limit; Chapter 8 Resistive MHD Stability; 8.1 Stability of Current Sheets; 8.2 Reconnection in the Presence of a Guide Field; 8.3 Magnetic Islands in Tokamaks; 8.4 The Rutherford EquationChapter 9 Current Driven (`classical') Tearing Modes in Tokamaks9.1 Effect of Tearing Modes on Kinetic Profiles; 9.2 Nonlinear Saturation; 9.3 Tearing Mode Rotation and Locking; 9.3.1 Rotation of Tearing Modes in Tokamaks; 9.3.2 Locking of Pre-existing Magnetic Islands; 9.3.3 Ab-initio Locked Modes; Chapter 10 Disruptions; 10.1 Phenomenology of Disruptions; 10.1.1 The Density Limit; 10.2 Consequences of Disruptions; 10.2.1 Thermal Loads; 10.2.2 Mechanical Loads; 10.2.3 Runaway Generation; 10.3 Disruption Avoidance and Mitigation; Chapter 11 M=1 Modes beyond Ideal MHD: Sawteeth and Fishbones11.1 The Sawtooth InstabilityThis book bridges the gap between general plasma physics lectures and the real world problems in MHD stability. In order to support the understanding of concepts and their implication, it refers to real world problems such as toroidal mode coupling or nonlinear evolution in a conceptual and phenomenological approach. Detailed mathematical treatment will involve classical linear stability analysis and an outline of more recent concepts such as the ballooning formalism. The book is based on lectures that the author has given to Master and PhD students in Fusion Plasma Physics. Due its strong linTokamakslemacMagnetohydrodynamic generatorsTokamakslemacMagnetohydrodynamic generators.538.6Zohm Hartmut1681011MiAaPQMiAaPQMiAaPQBOOK9910807824803321Magnetohydrodynamic stability of tokamaks4050137UNINA