Results 1 to 10 of about 202,326 (152)

Gravitational waves in modified teleparallel theories of gravity. [PDF]

Eur Phys J C Part Fields, 2018
Teleparallel theory of gravity and its modifications have been studied extensively in literature. However, gravitational waves has not been studied enough in the framework of teleparallelism.
Abedi H, Capozziello S.
europepmc   +2 more sources

Quantum Emulation of Gravitational Waves. [PDF]

Sci Rep, 2015
Gravitational waves, as predicted by Einstein's general relativity theory, appear as ripples in the fabric of spacetime traveling at the speed of light.
Fernandez-Corbaton I, Cirio M, Büse A, Lamata L, Solano E, Molina-Terriza G.   +5 more
europepmc   +6 more sources

Extraction of gravitational waves in numerical relativity. [PDF]

Living Rev Relativ, 2016
Bishop NT, Rezzolla L.
europepmc   +2 more sources

Low frequency electromagnetic radiation coming from gravitational waves generated by neutron stars [PDF]

, 2017
We investigate the possibility of observing very low frequency (VLF) electromagnetic radiation produced from the vacuum by gravitational waves. We review the calculations leading to the possibility of vacuum conversion of gravitational waves into ...
Gretarsson, Andri, Jones, Preston, Singleton, Douglas   +2 more
core   +3 more sources

Energy Contents of Gravitational Waves in Teleparallel Gravity [PDF]

, 2009
The conserved quantities, that are, gravitational energy-momentum and its relevant quantities are investigated for cylindrical and spherical gravitational waves in the framework of teleparallel equivalent of General Relativity using the Hamiltonian ...
Ehlers J., M. SHARIF, Møller C., Nashed G. G. L., Sharif M., Sharif M., SUMAIRA TAJ, Synge J. L.   +7 more
core   +1 more source

Gravitational Waves from Gravitational Collapse [PDF]

, 2002
Gravitational wave emission from the gravitational collapse of massive stars has been studied for more than three decades. Current state of the art numerical investigations of collapse include those that use progenitors with realistic angular momentum ...
A Buonanno, A Burrows, A Burrows, A Burrows, A Burrows, A Hayashi, A Hayashi, A Heger, A Heger, A Heger, A Heger, A Hungerford, A Hungerford, A Loeb, A Mezzacappa, A Mezzacappa, AI MacFadyen, AK Schenk, AL Watts, AR King, BF Schutz, BJ Carr, BK Pickett, California Institute of Technology, CD Ott, CJ Hogan, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CL Fryer, CW Misner, D Lai, D Lai, D Lai, D Proga, DJ Eisenstein, DK Nadyozhin, DT Wickramasinghe, E Baron, E Baron, E Baron, E Berger, E Bravo, E Cappellaro, E Müller, E Müller, E Müller, E Müller, E Müller, E Müller, E Müller, E Seidel, E Seidel, EE Salpeter, EMD Symbalisty, EW Leaver, F Brachwitz, FA Jenet, FD Macchetto, FD Swesty, G Bazan, GB Cook, H Dimmelmeier, H Dimmelmeier, H Dimmelmeier, H Dimmelmeier, H-T Janka, H-T Janka, H-T Janka, H-T Janka, H-T Janka, HA Bethe, HA Bethe, Hannover University, HC Spruit, I Baraffe, I Hachisu, I Iben, ID Novikov, J Isern, J Kormendy, J Toman, J Woodward, J-A Marck, J-L Tassoul, JC Wheeler, JD Brown, JD Brown, JE Tohline, JE Tohline, JL Friedman, JL Houser, JM Blondin, JM Centrella, JN Imamura, JN Imamura, JR Wilson, JR Wilson, K Kifonidis, K Kotake, K Kotake, K Kotake, K Nomoto, KCB New, KCB New, KCB New, KS Thorne, KS Thorne, KS Thorne, KS Thorne, L Blanchet, L Ferrarese, L Lindblom, L Lindblom, L Lindblom, L Lindblom, L Rezzolla, L Rezzolla, L Rezzolla, L Scheck, L Villain, LC Loveridge, LR Yungelson, LS Finn, LS Finn, LS Finn, M Alcubierre, M Bardeen, M Hamuy, M Herant, M Herant, M Kato, M Liebendörfer, M Rampp, M Rampp, M Saijo, M Saijo, M Saijo, M Shibata, M Shibata, M Shibata, M Shibata, M Shibata, M Shibata, M Shibata, M Shibata, M Shibata, Max Planck Institute for Astrophysics, Max Planck Institute for Astrophysics, MC Begelman, MD Duez, MG Haehnelt, MG Haehnelt, MG Haehnelt, MHPM Putten van, MHPM Putten van, MJ Rees, MS Turner, N Andersson, N Andersson, N Arnaud, N Stergioulas, N Stergioulas, NASA/ESA, National Astronomical Observatory, O Zanotti, P Arras, P Bodenheimer, P Gressman, P Haensel, P Podsiadlowski, PA Young, PB Jones, PB Jones, R Buras, R Epstein, R Epstein, R Maiolino, R Mayle, R Mönchmeyer, R Popham, R Ruffini, R Walder, RA Managan, RA Saenz, RA Saenz, RA Saenz, RF Stark, RH Durisen, RH Sanders, RL Bowers, RL Bowers, S Akiyama, S Bonazzola, S Cassisi, S Chandrasekhar, S Chandrasekhar, S Chandrasekhar, S Detweiler, S Kobayashi, S Kobayashi, S Ou, S Smith, S Starrfield, S Yamada, S Yu-ichirou, SA Colgate, SA Colgate, SA Colgate, SA Hughes, SC Yooun, SE Woosley, SE Woosley, SE Woosley, SL Shapiro, SL Shapiro, SL Shapiro, SL Shapiro, SN Nazin, SW Bruenn, SW Bruenn, T Abel, T Abel, T Foglizzo, T Nakamura, T Nakamura, T Piran, T Zwerger, TA Thompson, TW Baumgarte, TW Baumgarte, TW Baumgarte, TW Baumgarte, TW Baumgarte, TX Thuan, V Bromm, V Ferrari, V Ferrari, W Hillebrandt, WCG Ho, WD Arnett, Y Eriguchi, Y Sekiguchi, YT Liu, YT Liu   +256 more
core   +3 more sources

Multiple imaging by gravitational waves [PDF]

, 1997
Gravitational waves act like lenses for the light propagating through them. This phenomenon is described using the vector formalism employed for ordinary gravitational lenses, which was proved to be applicable also to a non-stationary spacetime, with the
Braginsky V. B., Carr B. J., Fakir R., Faraoni V., Frieman J. A., Labeyrie A., Linder E. V., Udalski A., VALERIO FARAONI, Winterberg F.   +9 more
core   +3 more sources

Propagation of gravitational waves in the nonperturbative spinor vacuum [PDF]

, 2014
The propagation of gravitational waves on the background of a nonperturbative vacuum of a spinor field is considered. It is shown that there are several distinctive features in comparison with the propagation of plane gravitational waves through empty ...
Dzhunushaliev, Vladimir, Folomeev, Vladimir   +1 more
core   +2 more sources

Gravitational waves from inflation

, 2016
The production of a stochastic background of gravitational waves is a fundamental prediction of any cosmological inflationary model. The features of such a signal encode unique information about the physics of the Early Universe and beyond, thus ...
Bartolo, Nicola, Guzzetti, Maria Chiara, Liguori, Michele, Matarrese, Sabino   +3 more
core   +1 more source

Is it possible to detect gravitational waves with atom interferometers? [PDF]

, 2007
We investigate the possibility to use atom interferometers to detect gravitational waves.
, , , , Antoine C, Baskaran D, Berman P, Bordé Ch J, Bordé Ch J, Brillet A, Chu S, F Vetrano, Faraoni V, Flores G, Fortini P L, G M Tino, Grishchuk L P, Gross B, Gustafson T L, Heupel T, Linet B, Misner C W, Peters A, Saulson P R, Scoles G, Stedman G E, Stephani H   +26 more
core   +2 more sources