The Laser Interferometer Space Antenna: Unveiling the Millihertz Gravitational Wave Sky

26 Jul 2019  ·  Baker John, Bellovary Jillian, Bender Peter L., Berti Emanuele, Caldwell Robert, Camp Jordan, Conklin John W., Cornish Neil, Cutler Curt, DeRosa Ryan, Eracleous Michael, Ferrara Elizabeth C., Francis Samuel, Hewitson Martin, Holley-Bockelmann Kelly, Hornschemeier Ann, Hogan Craig, Kamai Brittany, Kelly Bernard J., Key Joey Shapiro, Larson Shane L., Livas Jeff, Manthripragada Sridhar, McKenzie Kirk, McWilliams Sean T., Mueller Guido, Natarajan Priyamvada, Numata Kenji, Rioux Norman, Sankar Shannon R., Schnittman Jeremy, Shoemaker David, Shoemaker Deirdre, Slutsky Jacob, Spero Robert, Stebbins Robin, Thorpe Ira, Vallisneri Michele, Ware Brent, Wass Peter, Yu Anthony, Ziemer John ·

The first terrestrial gravitational wave interferometers have dramatically underscored the scientific value of observing the Universe through an entirely different window, and of folding this new channel of information with traditional astronomical data for a multimessenger view. The Laser Interferometer Space Antenna (LISA) will broaden the reach of gravitational wave astronomy by conducting the first survey of the millihertz gravitational wave sky, detecting tens of thousands of individual astrophysical sources ranging from white-dwarf binaries in our own galaxy to mergers of massive black holes at redshifts extending beyond the epoch of reionization. These observations will inform - and transform - our understanding of the end state of stellar evolution, massive black hole birth, and the co-evolution of galaxies and black holes through cosmic time. LISA also has the potential to detect gravitational wave emission from elusive astrophysical sources such as intermediate-mass black holes as well as exotic cosmological sources such as inflationary fields and cosmic string cusps.

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Instrumentation and Methods for Astrophysics High Energy Astrophysical Phenomena General Relativity and Quantum Cosmology