
Critical Problems in Physics
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Ed Witten and Frank Wilczek discuss string theory and the future of particle physics; Donald Perkins describes the search for neutrino oscillations; Alvin Tollestrup reveals dreams of a muon collider at Fermilab to probe the heart of "elementary" particles; and Robert Palmer anticipates a new generation of particle accelerators. Thibault Damour reviews classical gravitation and the relevant new high-precision experiments; Kip Thorne describes the exciting future for gravitational wave astronomy; and Paul Steinhardt examines the recent breakthroughs in observational cosmology and explains what future experiments might reveal. James Langer explores nonequilibrium statistics and relates it to the origins of complexity; Harry Swinney takes an experimentalist's view of the emergence of order in seemingly chaotic systems; and John Hopfield describes an extremely unusual dynamical system--the human brain. Bruce Hillman, M. D., discusses the recent developments in imaging techniques that have brought about outstanding advances in medical diagnostics. T.V. Ramakrishnan looks at high-temperature superconductors, which could eventually revolutionize the solid-state technology on which society is already highly dependent.
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Content
- Cover Page
- Half-title Page
- Title Page
- Copyright Page
- Dedication Page
- Contents
- Preface
- 1. The 1946 Conference: Then and Now
- 1.1 Discussion
- 2. Nonequilibrium Physics
- 2.1 Introduction
- 2.2 Kepler's Snowflakes
- 2.3 Thoreau's Snowflakes
- 2.4 Metallurgical Microstructures
- 2.5 Solidification as A Free-Boundary Problem
- 2.6 Shape Instabilities and Singular Perturbations
- 2.7 Thermal Fluctuations and Sidebranches
- 2.8 A Field-Theoretic Description of Solidification Patterns
- 2.9 The Symmetry and Diversity of Snowflakes
- 2.10 Fracture Dynamics
- 2.11 The Physics of Complexity
- 2.12 Discussion
- 3. Dynamics, Computation, and Neurobiology
- 3.1 Biology and Physics
- 3.2 Neural Computation and Dynamics
- 3.3 Statistical and Collective aspects
- 3.4 Development and Environment
- 3.5 Evolution as A Source of Unity
- 3.6 Concluding Remarks
- 3.7 Discussion
- 4. Emergence and Evolution of Patterns
- 4.1 Near Equilibrium: The Base State
- 4.2 Instability of The Base State
- 4.3 Far Beyond The Onset of Stability: Experiments, Simulations, and Symmetry
- 4.4 Persistence of Order
- 4.5 Prospects
- 4.6 Discussion
- 5. High Temperature Superconductors
- 5.1 The Setting
- 5.1.1 The Atomic Arrangement
- 5.1.2 Electronic Structure
- 5.1.3 Mott Insulator
- 5.1.4 Doped Mott Insulator
- 5.2 The Insular Metal
- 5.2.1 Electrical Resistivity
- 5.2.2 Optical Conductivity
- 5.2.3 Angle-Resolved Photoemission Spectroscopy (Arpes)
- 5.3 The Metal In-Plane
- 5.3.1 Resistivity
- 5.3.2 The Hall Effect
- 5.3.3 Optical Conductivity
- 5.3.4 Single Particle Spectrum
- 5.3.5 Magnetic Excitations
- 5.4 Lower Energy Scale
- 5.5 The Superconducting State
- 5.6 Theories
- 5.7 Future
- 5.8 Discussion
- 6. The Ongoing Revolution In Medical Imaging
- 6.1 Discussion
- 7. Cosmological Challenges For The 21st Century
- 7.1 Introduction
- 7.2 Is The Universe Flat?
- 7.3 Do We Live In An Inflationary Universe?
- 7.4 Does Nmatter = 1?
- 7.5 If Matter & 1 and Fitotal = 1, What Else Is There?
- 7.6 Ultimate Challenge
- 7.7 Discussion
- 8. Gravitation and Experiment
- 8.1 Introduction
- 8.2 Experimental Tests of The Coupling Between Matter and Gravity
- 8.3 Tests of The Dynamics of The Gravitational Field In The Weak Field Regime
- 8.4 Tests of The Dynamics of The Gravitational Field In The Strong Field Regime
- 8.5 Was Einstein 100% Right?
- 8.6 Discussion
- 9. Gravitational Waves
- 9.1 Introduction
- 9.2 Ground-Based Laser Interferometers: Ligo & Virgo
- 9.2.1 Wave Polarizations, Waveforms, and How An Interferometer Works
- 9.2.2 Wave Strengths and Interferometer Arm Lengths
- 9.2.3 Ligo, Virgo, and The International Gravitational Wave Network
- 9.2.4 Narrow-Band Detectors
- 9.3 Lisa: The Laser Interferometer Space Antenna
- 9.4 Binaries Made of Neutron Stars, Black Holes, and Other Exotic Objects: Inspiral, Collision, and Coalescence In The Hf Ban
- 9.4.1 Wave Strengths Compared To Ligo Sensitivities
- 9.4.2 Coalescence Rates
- 9.4.3 Inspiral Waveforms and The Information They Can Bring
- 9.4.4 Testing Gr, Measuring The Cosmological Universe, Mapping Black Holes, and Searching For Exotic Objects
- 9.4.5 Coalescence Waveforms and Their Information
- 9.5 Other High-Frequency Sources
- 9.5.1 Stellar Core Collapse and Supernovae
- 9.5.2 Spinning Neutron Stars
- Pulsars
- 9.6 Low-Frequency Gravitational-Wave Sources
- 9.6.1 Waves From The Coalescence of Massive Black Holes In Distant Galaxies
- 9.6.2 Waves From Compact Bodies Spiraling into MAS -Sive Black Holes or Exotic Objects in Distant Galaxies
- 9.7 Conclusion
- 9.8 Discussion
- 10. Neutrino Oscillations D.H. Perkins
- 10.1 Some Neutrino Properties
- 10.2 Neutrino Oscillations
- 10.3 Solar Neutrinos
- 10.4 Atmospheric Neutrinos
- 10.5 Maximal Mixing
- 10.6 Appearance Experiments
- 10.7 Long Baseline Experiments
- 10.8 A Neutrino Crisis?
- 10.9 Discussion
- 11. The Tevatron Alvin Tollestrup
- 11.1 The Tevatron
- 11.2 The Factory Concept
- 11.3 The Magnet
- 11.4 Magnetic Measurement
- 11.5 Cryogenics
- 11.6 The Future
- 11.7 Some Physics Results
- 11.8 The Near Future
- 11.9 The Far Future
- 11.10 Conclusion
- 11.11 Discussion
- 12. High Energy Colliders
- 12.1 introduction
- 12.2 Physics Considerations
- 12.2.1 General
- 12.2.2 Required Luminosity For Lepton Colliders
- 12.2.3 The Effective Physics Energies of Hadron Colliders
- 12.3 Hadron-Hadron Machines
- 12.3.1 Luminosity
- 12.3.2 Size and Cost
- 12.4 Circular e+e - Machines
- 12.4.1 Luminosity
- 12.4.2 Size and Cost
- 12.5 e+e - Linear Colliders
- 12.5.1 Luminosity
- 12.5.2 Conventional RF
- 12.5.3 Superconducting RF
- 12.5.4 At Higher Energies
- 12.6 Colliders
- 12.7 Colliders
- 12.7.1 Advantages and Disadvantages
- 12.7.2 Design Studies
- 12.7.3 Status and Required R and D
- 12.8 Comparison of Machines
- 12.9 Conclusions
- 12.10 Discussion
- 13. Vistas in Theoretical Physics Edward Witten
- 13.1 Predictions and Post-Dictions in The Classic Period
- 13.2 The Mystery of The Cosmological Constant
- 13.3 The Big Questions
- 13.4 Outlook
- 13.5 Discussion
- 14. The Future of Particle Physics As A Natural Science Frank Wilczek
- 14.1 Triumph of The Standard Model
- 14.2 Deficiencies of The Standard Model
- 14.3 Unification: Symmetry
- 14.4 Unification: Dynamics, and A Big Hint of Supersymmetry
- 14.4.1 The Central Result
- 14.4.2 Implications
- 14.4.3 Why Supersymmetry is a Good Thing
- 14.5 The Farther Future: Connections
- 14.5.1 Matter
- 14.5.2 Cosmos
- 14.6 Discussion
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