David M. Feldbaum received his Ph.D. in experimental physics from the University of Michigan in 2003, working with trapped atoms. As a postdoctoral researcher, he spent several years at Los Alamos National Laboratory working on trapping radioactive atoms, before joining the Laser Interferometer Gravitational Observatory in Louisiana as a part of the University of Florida research group. He joined the faculty of the Southeastern Louisiana University in 2014.

• Introduction.- The Wave Equation.- Waves of What?.- Plane Gravitational Waves.- Overview.- Static Sources and Static Multipoles.- Waves from Retarded Potentials.- Magnetism and Gravito-Magnetism.- Tidal Field as Gravielectric Field.- Frame-Drag Field as Gravimagnetic Field.- Gravitational Waves in Terms of Tidal and Frame-Drag Fields.- Overview of General Relativity.- Gravitational Waves and Einstein Equations.- Overview.- Black Holes.- Neutron Stars.- Early Universe.- Overview.- What Should We Measure?.- The Signals.- Evidence from Pulsars.- Noises.- Mechanical Detection.- Interferometry.- Terrestrial Interferometric Detection.- Space-Based Detection.- Atomic Gravitational Wave Detectors.- Pulsar Timing Array.- Polarization of Cosmic Microwave Background.- Bibliography.- Author's Biography.

David M. Feldbaum received his Ph.D. in experimental physics from the University of Michigan in 2003, working with trapped atoms. As a postdoctoral researcher, he spent several years at Los Alamos National Laboratory working on trapping radioactive atoms, before joining the Laser Interferometer Gravitational Observatory in Louisiana as a part of the University of Florida research group. He joined the faculty of the Southeastern Louisiana University in 2014.

• Introduction.- The Wave Equation.- Waves of What?.- Plane Gravitational Waves.- Overview.- Static Sources and Static Multipoles.- Waves from Retarded Potentials.- Magnetism and Gravito-Magnetism.- Tidal Field as Gravielectric Field.- Frame-Drag Field as Gravimagnetic Field.- Gravitational Waves in Terms of Tidal and Frame-Drag Fields.- Overview of General Relativity.- Gravitational Waves and Einstein Equations.- Overview.- Black Holes.- Neutron Stars.- Early Universe.- Overview.- What Should We Measure?.- The Signals.- Evidence from Pulsars.- Noises.- Mechanical Detection.- Interferometry.- Terrestrial Interferometric Detection.- Space-Based Detection.- Atomic Gravitational Wave Detectors.- Pulsar Timing Array.- Polarization of Cosmic Microwave Background.- Bibliography.- Author's Biography.

David M. Feldbaum received his Ph.D. in experimental physics from the University of Michigan in 2003, working with trapped atoms. As a postdoctoral researcher, he spent several years at Los Alamos National Laboratory working on trapping radioactive atoms, before joining the Laser Interferometer Gravitational Observatory in Louisiana as a part of the University of Florida research group. He joined the faculty of the Southeastern Louisiana University in 2014.

• Introduction.- The Wave Equation.- Waves of What?.- Plane Gravitational Waves.- Overview.- Static Sources and Static Multipoles.- Waves from Retarded Potentials.- Magnetism and Gravito-Magnetism.- Tidal Field as Gravielectric Field.- Frame-Drag Field as Gravimagnetic Field.- Gravitational Waves in Terms of Tidal and Frame-Drag Fields.- Overview of General Relativity.- Gravitational Waves and Einstein Equations.- Overview.- Black Holes.- Neutron Stars.- Early Universe.- Overview.- What Should We Measure?.- The Signals.- Evidence from Pulsars.- Noises.- Mechanical Detection.- Interferometry.- Terrestrial Interferometric Detection.- Space-Based Detection.- Atomic Gravitational Wave Detectors.- Pulsar Timing Array.- Polarization of Cosmic Microwave Background.- Bibliography.- Author's Biography.