Generation of Gravitational Waves by Slow-Motion Sources in Curved Spacetime (2/2) 
Generation of Gravitational Waves by Slow-Motion Sources in Curved Spacetime (2/2) by Caltech / Kip Thorne
Video Lecture 20 of 69
Copyright Information: This video is taken from a 2002 Caltech on-line course on "Gravitational Waves", organized and designed by Kip S. Thorne, Mihai Bondarescu and Yanbei Chen. The full course, including this and many other lecture videos, exercises, solutions to exercises, and lists of relevant reading, are available on the web at http://elmer.caltech.edu/ph237/
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Date Added: March 18, 2010

Lecture Description

Generation of Gravitational Waves by Slow-Motion Sources in Curved Spacetime (2/2): Week 6, Lecture 11

A. Strong-field region, weak-field near zone, local wave zone, distant wave zone
B. Multipolar expansions of metric perturbation in weak-field near zone and local wave zone
      1. influence of source's mass and angular momentum
      2. mass quadrupolar component of GW's; current quadrupolar component
      3. rates of emission of energy, linear momentum, and angular momentum
C. Application to a binary star system with circular orbit
      1. inspiral rate and timescale
      2. chirp waveform; chirp mass

Course Index

  1. Overview of Gravitational-Wave Science (1/4)
  2. Overview of Gravitational-Wave Science (2/4)
  3. Overview of Gravitational-Wave Science (3/4)
  4. Overview of Gravitational-Wave Science (4/4); Introduction to General Relativity (1/5)
  5. Introduction to General Relativity (2/5)
  6. Introduction to General Relativity (3/5)
  7. Introduction to General Relativity (4/5)
  8. Introduction to General Relativity (5/5)
  9. Weak Gravitational Waves in Flat Spacetime (1/6)
  10. Weak Gravitational Waves in Flat Spacetime (2/6)
  11. Weak Gravitational Waves in Flat Spacetime (3/6)
  12. Weak Gravitational Waves in Flat Spacetime (4/6)
  13. Weak Gravitational Waves in Flat Spacetime (5/6)
  14. Weak Gravitational Waves in Flat Spacetime (6/6); Propagation of Gravitational Waves Through Curved Spacetime (1/5)
  15. Propagation of Gravitational Waves Through Curved Spacetime (2/5)
  16. Propagation of Gravitational Waves Through Curved Spacetime (3/5)
  17. Propagation of Gravitational Waves Through Curved Spacetime (4/5)
  18. Propagation of Gravitational Waves Through Curved Spacetime (5/5)
  19. Generation of Gravitational Waves by Slow-Motion Sources in Curved Spacetime (1/2)
  20. Generation of Gravitational Waves by Slow-Motion Sources in Curved Spacetime (2/2)
  21. Astrophysical Phenomenology of Binary-Star GW Sources (1/5)
  22. Astrophysical Phenomenology of Binary-Star GW Sources (2/5)
  23. Astrophysical Phenomenology of Binary-Star GW Sources (3/5)
  24. Astrophysical Phenomenology of Binary-Star GW Sources (4/5)
  25. Astrophysical Phenomenology of Binary-Star GW Sources (5/5); Post-Newtonian G-Waveforms for LIGO & Its Partners (1/2
  26. Post-Newtonian Gravitational Waveforms for LIGO & Its Partners (2/2)
  27. Supermassive Black Holes and their Gravitational Waves (1/3)
  28. Supermassive Black Holes and their Gravitational Waves (2/3)
  29. Supermassive Black Holes and their Gravitational Waves (3/3); Gravitational Waves from Inflation (1/2)
  30. Gravitational Waves from Inflation (2/2)
  31. Gravitational Waves from Neutron-Star Rotation and Pulsation (1/2)
  32. Gravitational Waves from Neutron-Star Rotation and Pulsation (2/2)
  33. Numerical Relativity as a Tool for Computing GW Generation (1/2)
  34. Numerical Relativity as a Tool for Computing GW Generation (2/2)
  35. The Physics Underlying Earth-Based Gravitational Wave Interferometers (1/4)
  36. The Physics Underlying Earth-Based Gravitational Wave Interferometers (2/4)
  37. The Physics Underlying Earth-Based Gravitational Wave Interferometers (3/4)
  38. The Physics Underlying Earth-Based Gravitational Wave Interferometers (4/4)
  39. Overview of Real LIGO Interferometers (1/2)
  40. Overview of Real LIGO Interferometers (2/2)
  41. Thermal Noise in LIGO Interferometers and its Control (1/2)
  42. Thermal Noise in LIGO Interferometers and its Control (2/2)
  43. Control Systems and Laser Frequency Stabilization (1/2)
  44. Control Systems and Laser Frequency Stabilization (2/2)
  45. Interferometer Simulations and Lock Acquisition in LIGO
  46. Seismic Isolation in Earth-Based Interferometers
  47. Quantum Optical noise in GW Interferometers (1/2)
  48. Quantum Optical noise in GW Interferometers (2/2)
  49. LIGO data analysis (1/2)
  50. LIGO data analysis (2/2)
  51. The Long-Term Future of LIGO: Facility Limits
  52. The Long-Term Future of LIGO: Techniques for Improving on LIGO-II
  53. Large Experimental Science and LIGO as an Example (1/2)
  54. Large Experimental Science and LIGO as an Example (2/2)
  55. Resonant-Mass GW Detectors for the HF Band (1/2)
  56. Resonant-Mass GW Detectors for the HF Band (2/2)
  57. CAJAGWR talk by W.O. Hamilton on Resonant-Mass GW Detectors
  58. Doppler tracking of spacecraft for GW detection in the low frequency band
  59. Pulsar timing for GW detection in the very low frequency band
  60. LISA (Laser Interferometer Space Antenna) for GW Detection in LF Band: Conceptual Design (1/2)
  61. LISA (Laser Interferometer Space Antenna) for GW Detection in LF Band: Conceptual Design (2/2)
  62. LISA's Lasers and Optics (1/2)
  63. LISA's Lasers and Optics (2/2)
  64. Time-Delay Interferometry [TDI] for LISA (1/2)
  65. Time-Delay Interferometry [TDI] for LISA (2/2)
  66. LISA's Distrubance Reduction System (DRS) [Drag-Free System] (1/2)
  67. LISA's Distrubance Reduction System (DRS) [Drag-Free System] (2/2)
  68. The Big-Bang Observatory [BBO]: A Possible Follow-On Mission to LISA
  69. GW's from Inflation and GW Detection in ELF Band via Anisotropy of CMB Polarization

Course Description

Caltech's Physics 237-2002: Gravitational Waves
A Web-Based Course organized and Designed by Kip S. Thorne, Mihai Bondarescu and Yanbei Chen.

This course contains all the materials from a graduate-student-level course on Gravitational Waves taught at the California Institute of Technology, Janua...
(read more)

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