Laser-Plasma Interactions 4
Herausgeber: Hooper, M B
Laser-Plasma Interactions 4
Herausgeber: Hooper, M B
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- Produkterinnerung
Laser-Plasma Interactions 4 is the fourth book in a series devoted to the study of laser-plasma interactions. Subjects covered include laser light propagation, instabilities, compression and hydrodynamics, spectroscopy, diagnostics, computer code, dense plasmas, high-power lasers, X-UV sources and lasers, beat waves, and transport processes.
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Laser-Plasma Interactions 4 is the fourth book in a series devoted to the study of laser-plasma interactions. Subjects covered include laser light propagation, instabilities, compression and hydrodynamics, spectroscopy, diagnostics, computer code, dense plasmas, high-power lasers, X-UV sources and lasers, beat waves, and transport processes.
Produktdetails
- Produktdetails
- Verlag: Taylor and Francis
- Seitenzahl: 394
- Erscheinungstermin: 1. Januar 1989
- Englisch
- Abmessung: 234mm x 156mm x 22mm
- Gewicht: 735g
- ISBN-13: 9780905945187
- ISBN-10: 0905945182
- Artikelnr.: 23516196
- Verlag: Taylor and Francis
- Seitenzahl: 394
- Erscheinungstermin: 1. Januar 1989
- Englisch
- Abmessung: 234mm x 156mm x 22mm
- Gewicht: 735g
- ISBN-13: 9780905945187
- ISBN-10: 0905945182
- Artikelnr.: 23516196
Dr M B Hooper, Department of Physics and Applied Physics, University of Strathclyde, Glasgow G4 ONG, Scotland, UK.
INTRODUCTION TO THE PHYSICS AND APPLICATIONS OF LASER PRODUCED PLASMAS
M H KEY
INTRODUCTION
1. LASER FUSION
Direct drive
Indirect drive
Comparison of inertial fusion and magnetic fusion Future facilities
2. DENSE PLASMAS
3. HIGH INTENSITY LASER PLASMA INTERACTIONS
4. PARTICLE ACCELERATORS Wake field acceleration
5. XUV AND X
RAY SOURCES AND THEIR APPLICATIONS
6. XUV AND X
RAY LASERS
7. PARTICLE SOURCES
8. DEVELOPMENTS IN LASER TECHNOLOGY
REFERENCES
LASER LIGHT PROPAGATION AND INTERACTION WITH PLASMA
P. MULSER
1. CAPACITOR MODEL OF RESONANCE ABSORPTION
1.1 Linear resonance absorption
1.2 High amplitude electron waves and wavebreaking
2. ABSORPTION OF INTENSE fs LASER PULSES
2.1 Plasma parameters and the problem of absorption
2.2 Collision frequency under strong drift conditions
Excitation of plasma oscillations by a single fast particle
Collision frequencies
Screening and statistical independence
2.3 Anomalous skin effect
2.4 Ionisation dephasing
3. WAVE ACTION AND PROPAGATION IN MODULATED PLASMAS
3.1 Generalized ponderomotive action on single particles
3.2 Light propagation in periodically modulated plasmas REFERENCES
LASER
INDUCED RADIATION HYDRODYNAMICS: AN INTRODUCTION
R. SIGEL
1. INTRODUCTION
2. RADIATIVE TRANSPORT
2.1 Radiation confinement
2.2 The hydrodynamic equations
2.3 The transport'of energy by radiation 2.4 The maximum opacity theorem
3. SELF
SIMILAR SOLUTIONS
3.1 The Buckingham theorem and self
similarity
3.2 The isothermal rarefaction wave as an example of self
similar gas motion
3.3 The radiation driven ablative heat wave
4. EXPERIMENTS REFERENCES
LASER
DRIVEN INSTABILITIES IN LONG SCALELENGTH PLASMAS
II
W L KRUER
1. INTRODUCTION
2. STIMULATED RAMAN SCATTERING
3. EFFECT OF ION FLUCTUATIONS ON SRS
4. LASER BEAM FILAMENTATION
5. LASER BEAM SMOOTHING
6. SUMMARY REFERENCES
SPECTROSCOPY AND ATOMIC PHYSI
M H KEY
INTRODUCTION
1. LASER FUSION
Direct drive
Indirect drive
Comparison of inertial fusion and magnetic fusion Future facilities
2. DENSE PLASMAS
3. HIGH INTENSITY LASER PLASMA INTERACTIONS
4. PARTICLE ACCELERATORS Wake field acceleration
5. XUV AND X
RAY SOURCES AND THEIR APPLICATIONS
6. XUV AND X
RAY LASERS
7. PARTICLE SOURCES
8. DEVELOPMENTS IN LASER TECHNOLOGY
REFERENCES
LASER LIGHT PROPAGATION AND INTERACTION WITH PLASMA
P. MULSER
1. CAPACITOR MODEL OF RESONANCE ABSORPTION
1.1 Linear resonance absorption
1.2 High amplitude electron waves and wavebreaking
2. ABSORPTION OF INTENSE fs LASER PULSES
2.1 Plasma parameters and the problem of absorption
2.2 Collision frequency under strong drift conditions
Excitation of plasma oscillations by a single fast particle
Collision frequencies
Screening and statistical independence
2.3 Anomalous skin effect
2.4 Ionisation dephasing
3. WAVE ACTION AND PROPAGATION IN MODULATED PLASMAS
3.1 Generalized ponderomotive action on single particles
3.2 Light propagation in periodically modulated plasmas REFERENCES
LASER
INDUCED RADIATION HYDRODYNAMICS: AN INTRODUCTION
R. SIGEL
1. INTRODUCTION
2. RADIATIVE TRANSPORT
2.1 Radiation confinement
2.2 The hydrodynamic equations
2.3 The transport'of energy by radiation 2.4 The maximum opacity theorem
3. SELF
SIMILAR SOLUTIONS
3.1 The Buckingham theorem and self
similarity
3.2 The isothermal rarefaction wave as an example of self
similar gas motion
3.3 The radiation driven ablative heat wave
4. EXPERIMENTS REFERENCES
LASER
DRIVEN INSTABILITIES IN LONG SCALELENGTH PLASMAS
II
W L KRUER
1. INTRODUCTION
2. STIMULATED RAMAN SCATTERING
3. EFFECT OF ION FLUCTUATIONS ON SRS
4. LASER BEAM FILAMENTATION
5. LASER BEAM SMOOTHING
6. SUMMARY REFERENCES
SPECTROSCOPY AND ATOMIC PHYSI
INTRODUCTION TO THE PHYSICS AND APPLICATIONS OF LASER PRODUCED PLASMAS
M H KEY
INTRODUCTION
1. LASER FUSION
Direct drive
Indirect drive
Comparison of inertial fusion and magnetic fusion Future facilities
2. DENSE PLASMAS
3. HIGH INTENSITY LASER PLASMA INTERACTIONS
4. PARTICLE ACCELERATORS Wake field acceleration
5. XUV AND X
RAY SOURCES AND THEIR APPLICATIONS
6. XUV AND X
RAY LASERS
7. PARTICLE SOURCES
8. DEVELOPMENTS IN LASER TECHNOLOGY
REFERENCES
LASER LIGHT PROPAGATION AND INTERACTION WITH PLASMA
P. MULSER
1. CAPACITOR MODEL OF RESONANCE ABSORPTION
1.1 Linear resonance absorption
1.2 High amplitude electron waves and wavebreaking
2. ABSORPTION OF INTENSE fs LASER PULSES
2.1 Plasma parameters and the problem of absorption
2.2 Collision frequency under strong drift conditions
Excitation of plasma oscillations by a single fast particle
Collision frequencies
Screening and statistical independence
2.3 Anomalous skin effect
2.4 Ionisation dephasing
3. WAVE ACTION AND PROPAGATION IN MODULATED PLASMAS
3.1 Generalized ponderomotive action on single particles
3.2 Light propagation in periodically modulated plasmas REFERENCES
LASER
INDUCED RADIATION HYDRODYNAMICS: AN INTRODUCTION
R. SIGEL
1. INTRODUCTION
2. RADIATIVE TRANSPORT
2.1 Radiation confinement
2.2 The hydrodynamic equations
2.3 The transport'of energy by radiation 2.4 The maximum opacity theorem
3. SELF
SIMILAR SOLUTIONS
3.1 The Buckingham theorem and self
similarity
3.2 The isothermal rarefaction wave as an example of self
similar gas motion
3.3 The radiation driven ablative heat wave
4. EXPERIMENTS REFERENCES
LASER
DRIVEN INSTABILITIES IN LONG SCALELENGTH PLASMAS
II
W L KRUER
1. INTRODUCTION
2. STIMULATED RAMAN SCATTERING
3. EFFECT OF ION FLUCTUATIONS ON SRS
4. LASER BEAM FILAMENTATION
5. LASER BEAM SMOOTHING
6. SUMMARY REFERENCES
SPECTROSCOPY AND ATOMIC PHYSI
M H KEY
INTRODUCTION
1. LASER FUSION
Direct drive
Indirect drive
Comparison of inertial fusion and magnetic fusion Future facilities
2. DENSE PLASMAS
3. HIGH INTENSITY LASER PLASMA INTERACTIONS
4. PARTICLE ACCELERATORS Wake field acceleration
5. XUV AND X
RAY SOURCES AND THEIR APPLICATIONS
6. XUV AND X
RAY LASERS
7. PARTICLE SOURCES
8. DEVELOPMENTS IN LASER TECHNOLOGY
REFERENCES
LASER LIGHT PROPAGATION AND INTERACTION WITH PLASMA
P. MULSER
1. CAPACITOR MODEL OF RESONANCE ABSORPTION
1.1 Linear resonance absorption
1.2 High amplitude electron waves and wavebreaking
2. ABSORPTION OF INTENSE fs LASER PULSES
2.1 Plasma parameters and the problem of absorption
2.2 Collision frequency under strong drift conditions
Excitation of plasma oscillations by a single fast particle
Collision frequencies
Screening and statistical independence
2.3 Anomalous skin effect
2.4 Ionisation dephasing
3. WAVE ACTION AND PROPAGATION IN MODULATED PLASMAS
3.1 Generalized ponderomotive action on single particles
3.2 Light propagation in periodically modulated plasmas REFERENCES
LASER
INDUCED RADIATION HYDRODYNAMICS: AN INTRODUCTION
R. SIGEL
1. INTRODUCTION
2. RADIATIVE TRANSPORT
2.1 Radiation confinement
2.2 The hydrodynamic equations
2.3 The transport'of energy by radiation 2.4 The maximum opacity theorem
3. SELF
SIMILAR SOLUTIONS
3.1 The Buckingham theorem and self
similarity
3.2 The isothermal rarefaction wave as an example of self
similar gas motion
3.3 The radiation driven ablative heat wave
4. EXPERIMENTS REFERENCES
LASER
DRIVEN INSTABILITIES IN LONG SCALELENGTH PLASMAS
II
W L KRUER
1. INTRODUCTION
2. STIMULATED RAMAN SCATTERING
3. EFFECT OF ION FLUCTUATIONS ON SRS
4. LASER BEAM FILAMENTATION
5. LASER BEAM SMOOTHING
6. SUMMARY REFERENCES
SPECTROSCOPY AND ATOMIC PHYSI