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A. Introduction and General Considerations Unavailable

B. Ionization Unavailable

C. Equation of State Unavailable

• 1. Eulerian and Lagrangean Coordinate Systems
• 2. Inviscid Hydrodynamic Motion
• 3. Method of Characteristics
• 4. Acoustic Waves
• 5. Shock Waves
  • 1. Jump conditions
  • 2. Shock waves in a perfect gas
  • 3. Reflected shock waves
  • 4. Relation of the free surface velocity to the shock particle velocity
  • 5. Shocks in an ionized plasma
• 6. Hydrodynamic Motion of Viscous and Heat Conducting Fluids
• 7. Artificial Viscosity
• 8. Fluid Viscosities
  • 1. Plasma viscosity
  • 2. Viscous heating and momentum flux limiting
• 9. Subcycling
• 10. Implementation in 1D HYADES
  • 1. Void closure
  • 2. Initial and boundary conditions
  • 3. Real viscosities
  • 4. Artificial viscosities
  • 5. Gravity
  • 6. Sources
  • 7. Time step controls
  • 8. User accessible parameters

• 1. Thermal Electron Energy Transport
  • 1. Linear heat conduction
  • 2. Non linear heat conduction
  • 3. Thermal conductivity
  • 4. Thermal electron transport coefficients
  • 5. Thermal flux limit
• 2. Thermal Ion Energy Transport
  • 1. Thermal ion transport coefficients
• 3. Electron-Ion Thermal Energy Transfer
• 4. Electron Degeneracy
• 5. Collision Logarithms
  • 1. Electron-ion collisions
  • 2. Ion-ion collisions
• 6. Electron Mean Free Path Corrections
• 7. Implementation in 1D HYADES
  • 1. PdV work
  • 2. Electron-ion coupling
  • 3. Thermal electron diffusion coefficient
  • 4. D.C. electrical conductivity
  • 5. Electron-ion collision logarithm
  • 6. Thermal ion diffusion coefficient
  • 7. Ion-ion collision logarithm
  • 8. Initial and boundary conditions
  • 1. The diffusion equation
  • 10. Sources
  • 11. Time step controls
  • 12. User accessible parameters

F. Laser Interactions with Matter Unavailable

• 1. The radiation field
  • 1. Radiation energy density
  • 2. Radiative energy flux
  • 3. Radiation pressure tensor
• 2. Equilibrium radiation
  • 1. Planck's law
  • 2. Thermodynamics of equilibrium radiation
• 3. Transfer of Radiation
  • 1. Interaction of the radiation field with matter
  • 2. The equation of transfer
  • 3. Kirchhoff-Planck law
  • 4. Induced processes
  • 5. Optical depth
  • 6. Equations of radiation hydrodynamics
• 4. Emission of radiation
  • 1. Free-free emission (bremsstrahlung)
  • 2. Free-free absorption (inverse bremsstrahlung)
  • 3. Free-bound emission (photoionization)
  • 4. Bound-free absorption (radiative recombination)
  • 5. Compton scattering
  • 6. Electron degeneracy
• 5. Approximate Solutions to the Equation of Transfer
  • 1. Diffusion (Eddington) approximation
  • 2. Boundary conditions
  • 3. Equilibrium diffusion approximation and the Rosseland mean
  • 4. Emission approximation and the Planck mean
  • 5. Flux limiting
  • 6. Wave equation
  • 7. Multigroup diffusion
  • 8. Gray diffusion approximation
• 6. Implementation in 1D HYADES
  • 1. Gray diffusion
  • 2. Multigroup diffusion
  • 3. Sources and leaks
  • 4. Time step controls
  • 5. Modifications to other portions of HYADES
  • 6. User accessible parameters

H. Optical Absorption and Emission Coefficients Unavailable

I. Thermonuclear Reactions Unavailable

• 1. Momentum Equation
• 2. Magnetic Induction Equation
• 3. Electron Thermal Energy Equation
• 4. Ion Thermal Energy Equation
• 5. Flux Limiting
• 6. Electron Degeneracy
• 7. Bohm Diffusion
• 8. Boundary Conditions
• 9. Magnetic Energy
• 10. External Circuit

• 1. Elastic-Plastic Waves
• 2. The Stress Tensor
• 3. The Strain Tensor
• 4. Thermodynamics of Deformation
• 5. Hooke’s Law
• 6. Thermal Deformations
• 7. Elastic Waves
• 8. Plastic Flow
• 9. Yield Strength
• 10. Plastic Strain
• 11. Flow Stress Models
  • 1. Strain hardening
  • 2. Thermal softening
  • 3. Strain rate hardening
  • 4. Deformation history
  • 5. Models
• 1. Spallation
• 2. Implementation in 1D HYADES

L. Numerical Issues Unavailable

• 1. Point Explosions
  • 1. Initial gas density is constant
  • 2. Initial gas density is position dependent
  • 3. Special cases