My Account Log in

3 options

Plasmas and fluids / Panel on the Physics of Plasmas and Fluids, Physics Survey Committee, Board on Physics and Astronomy, Commission on Physical Sciences, Mathematics, and Resources, National Research Council.

EBSCOhost Academic eBook Collection (North America) Available online

View online

Ebook Central Academic Complete Available online

View online

National Academies Press Available online

View online
Format:
Book
Contributor:
National Research Council (U.S.). Panel on the Physics of Plasmas and Fluids.
Series:
Physics through the 1990s.
Physics through the 1990s
Language:
English
Subjects (All):
Plasma (Ionized gases).
Space plasmas.
Fluids.
Physical Description:
1 online resource (336 p.)
Edition:
1st ed.
Place of Publication:
Washington, D.C. : National Academy Press, 1986.
Language Note:
English
Contents:
Physics through the 1990s
Copyright
Preface
Contents
1 Introduction and Executive Summary
GENERAL FINDINGS AND RECOMMENDATIONS
Findings
Recommendations
INTRODUCTION
The Emergence of Plasma Physics
Classification of Plasmas
Fluid Physics
PRINCIPAL FINDINGS AND RECOMMENDATIONS
General Plasma Physics
Fusion Plasma Confinement and Heating
MAGNETIC CONFINEMENT
INERTIAL CONFINEMENT
Space and Astrophysical Plasmas
RECENT ACCOMPLISHMENTS AND FUTURE RESEARCH OPPORTUNITIES
Significant Recent Accomplishments
Future Research Opportunities
Significant Recent Accomplishments-Magnetic Confinement
Future Research Opportunities-Magnetic Confinement
Significant Recent Accomplishments-Inertial Confinement
Future Research Opportunities-Inertial Confinement
FUNDING AND MANPOWER RESOURCES
INSTITUTIONAL INVOLVEMENT
Plasma Confinement and Heating
2 Fluid Physics
INTRODUCTION AND OVERVIEW
SIGNIFICANT ACCOMPLISHMENTS AND OPPORTUNITIES IN FLUID PHYSICS
Significant Research Opportunities
FINDINGS AND RECOMMENDATIONS
Principal Findings
Support Structure
Computational Techniques
Instrumentation Techniques
Education
Principal Recommendations
Research Support
GOVERNMENT SUPPORT, MANPOWER, AND UNIVERSITY RESEARCH
DETAILED REVIEW OF THE BRANCHES, SELECTED TOPICAL SUBJECT AREAS, AND TECHNICAL DISCIPLINES OF FLUID-PHYSICS RESEARCH
Branches of Fluid Physics.
Combustion and Reacting Flows
Non-Newtonian Fluids and Rheology
Vortex-Dominated Flows
Disturbance of Initially Rotational Fields
Vortex Fields Generated by Highly Loaded Wings and Bodies
Geophysical Flows
Contained Vortices
High-Speed Flows
Molecular and Statistical Phenomena
Viscosity-Dominated Flows
Stability
Turbulence
Buoyancy-Driven Motion
Convection in Nature
Suspended Particles
Gravity Currents
Convection in Materials Processes
Interface Phenomena
Deformation and Breakup of Small Drops in Shear Flows
Breaking of Waves
Sediment Transport
Solitons
Spreading of Liquids on Solid Surfaces
Air-Sea Interaction
Sound Generation and Propagation
Radiation Hydrodynamics
Porous Media
Rotating Phenomena
Turbomachinery Flows
The Circulation of the Atmosphere and Oceans
Phase Change
Technological Applications
Nonequilibrium Evaporation and Condensation
Topical Subject Areas
Aerodynamics
Biofluid Dynamics
Flows of Electrically Conducting Fluids
Geophysical Fluid Dynamics
Multiphase Flows
Technical Disciplines
Modeling and Analytical Methods
Computational Fluid Dynamics
Experimental Methods
Instrumentation
Flow Facilities
ACKNOWLEDGEMENTS
3 General Plasma Physics
SCOPE AND OBJECTIVES OF GENERAL PLASMA PHYSICS
INTENSE BEAMS-ELECTRONS, IONS, AND PHOTONS
Development of Low-Impedance Multiterawatt Machines
Intense Ion Beams
Development of High-Energy, High-Current Machines
Z-Pinch X-Ray Sources
Propagation of Charged-Particle Beams in Gas and Plasma
Expectations and Recommendations for the next 10 Years
COLLECTIVE ACCELERATORS
Space-Charge Accelerators
Wave Accelerators
Electron-Ring Accelerators
Collective Focusing Accelerators
LASER-DRIVEN ACCELERATORS.
Beat-Wave Accelerator
Inverse Free-Electron-Laser Accelerator
Grating Accelerator
High-Gradient Structures
Inverse Cerenkov Accelerator
Cyclotron Resonant Accelerator
Problem Areas
Recommendations for the Next 10 Years
COHERENT, FREE-ELECTRON RADIATION SOURCES
ELECTROMAGNETIC WAVE-PLASMA INTERACTION
Scattering and Absorption of Electromagnetic Waves by Plasmas
Isotope Separation
NONLINEAR PHENOMENA IN PLASMAS
Chaos in Hamiltonian Systems
Soliton and Related Phenomena
Strong Langmuir Turbulence
Parametric Instabilities
Magnetic Reconnection
Turbulent Relaxation to Force-Free States
Other Major Achievements in the Past Decade
PLASMA THEORY DEVELOPMENTS RELATED TO MAGNETIC CONFINEMENT
Magnetic-Flux Geometries and Coordinate Systems
Single-Particle Orbits
Coulomb Collisional Processes
Macroscopic Equilibria
Macroscopic Instabilities-Ideal Magnetohydrodynamics
Macroscopic Instabilities-Resistive Magnetohydrodynamics
Microscopic (Kinetic) Instabilities and Turbulent Transport
Summary
ATOMIC PHYSICS IN (AND FOR) PLASMAS
Recent Progress
Outstanding Research Problems
Training
Funding Levels
Recommended Funding Levels
PLASMA DIAGNOSTICS
Laser Scattering
Microwave Interferometry
Spectroscopy
Charge Exchange
Neutrons and Alpha Particles
Blackbody and Plasma-Well Interactions
Heavy-Ion Diagnostics
Time-Resolved Plasma Activity
Scattering from Collective Fluctuations
Data Acquisition and Instrumentation
Desiderata
STRONGLY COUPLED PLASMA PHYSICS
History
Outlook for the Next 10 Years
NONNEUTRAL PLASMAS
4 Fusion Plasma Confinement and Heating
SCOPE AND OBJECTIVES OF FUSION PLASMA RESEARCH
Introduction
The Fusion Process
Magnetic Confinement
Inertial Confinement.
TOKAMAK AND STELLARATOR MAGNETIC-CONFINEMENT SYSTEMS
Major Advances
Optimization of Experimental Performance
Confinement
Stability and Beta Limits
Current Frontiers of Research
Prospects for Future Advances
MAGNETIC MIRROR SYSTEMS
Major Advances-the Tandem Mirror
Microstability
Axial Confinement: Control of the Potential Profile and Thermal Barriers
Macrostability: Equilibrium and Beta Limits
Radial Confinement: Particle Transport and Radial Potential Control
Prospects for Future Advances in Mirror Confinement
ELMO BUMPY TORUS
REVERSED-FIELD PINCH
COMPACT TOROIDS
Spheromaks
Field-Reversed Configurations
PROSPECTS FOR FUTURE ADVANCES
PLASMA HEATING
Radio-Frequency Heating
Major Advances: Theory
Major Advances: Experiment
Radio-Frequency Current Drive
Neutral-Beam Heating
Prospects For Future Advances
INERTIAL-CONFINEMENT FUSION SYSTEMS
Drivers For Inertial-Confinement Fusion
Laser-Target Physics
Laser-Plasma Coupling
Heat Transport and Ablation
Shell Acceleration, Uniformity, and Hydrodynamic Instabilities
ADVANCED FUSION APPLICATIONS
FUNDING OF FUSION PLASMA RESEARCH IN THE UNITED STATES
Magnetic Confinement.
Inertial Confinement
ACKNOWLEDGMENTS
5 Space And Astrophysical Plasmas
PRINCIPAL CONCLUSIONS
PRINCIPAL RECOMMENDATIONS
RELATIONSHIP BETWEEN LABORATORY, SPACE, AND ASTROPHYSICAL PLASMA RESEARCH
Definition of Space and Astrophysical Plasma Physics
Relationship Between Laboratory and Space Plasma Physics
Relationship Between Space and Astrophysical Plasma Research
Magnetohydrodynamic Atmospheres and Winds
Planetary and Astrophysical Magnetospheres
Magnetic-Field Reconnection
Particle Acceleration and Cosmic Rays
The Unifying Physical Problems
SPACE AND ASTROPHYSICAL PLASMA PHYSICS IN THE PAST 10 YEARS
Problem 3: The Behavior of Large-Scale Plasma Flows
Planetary Magnetospheres
Dynamics of the Earth's Magnetosphere
Magnetohydrodynamic Structures in the Sun's Atmosphere and in the Solar Wind
Magnetospheres of Neutron Stars
Magnetohydrodynamic Jets
General Relativistic Electrodynamics
Problem 1: Reconnection
Problem 2: Interaction of Turbulence with Magnetic Fields
Problem 4: Acceleration of Energetic Particles
Problem 5: Particle Confinement and Transport
Problem 6: Collisionless Shocks
Problem 7: Beam-Plasma Interactions, and the Generation of Radio Emissions
Problem 8: Interactions Between Plasmas and Neutral Gases
SPACE AND ASTROPHYSICAL PLASMA PHYSICS IN THE NEXT 10 YEARS
IMPACT OF RESEARCH ON SPACE AND ASTROPHYSICAL PLASMAS
THE ROLE OF SPACE AND GROUND-BASED MEASUREMENTS AND OBSERVATIONS
Solar-System Plasma Physics
Astrophysical Plasma Physics
In Situ Measurements near the Sun
Concluding Remarks
THE ROLES OF LABORATORY AND ACTIVE SPACE EXPERIMENTS
Laboratory Experiments
Active Space Experiments
THE ROLE OF THEORY
Space Plasma Theory
Theoretical Astrophysics
THE ROLE OF NUMERICAL MODELS AND SIMULATIONS.
Why Quantitative Models Are Essential.
Notes:
Bibliographic Level Mode of Issuance: Monograph
Includes bibliography: p. 282 and index.
ISBN:
9786610222360
9781280222368
1280222360
9780309542203
0309542200
9780585085074
0585085072
OCLC:
427404799

The Penn Libraries is committed to describing library materials using current, accurate, and responsible language. If you discover outdated or inaccurate language, please fill out this feedback form to report it and suggest alternative language.

Find

Home Release notes

My Account

Shelf Request an item Bookmarks Fines and fees Settings

Guides

Using the Find catalog Using Articles+ Using your account