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Autores principales: Matt, Cayenne, Gultekin, Kayhan, Kelley, Luke, Blecha, Laura, Simon, Joseph, Agazie, Gabriella, Anumarlapudi, Akash, Archibald, Anne, Arzoumanian, Zaven, Baier, Jeremy, Baker, Paul, Bécsy, Bence, Brazier, Adam, Brook, Paul, Burke-Spolaor, Sarah, Burnette, Rand, Case, Robin, Casey-Clyde, James, Charisi, Maria, Chatterjee, Shami, Cohen, Tyler, Cordes, James, Cornish, Neil, Crawford, Fronefield, Cromartie, H. Thankful, Crowter, Kathryn, DeCesar, Megan, Demorest, Paul, Deng, Heling, Dey, Lankeswar, Dolch, Timothy, Ferrara, Elizabeth, Fiore, William, Fonseca, Emmanuel, Freedman, Gabriel, Gardiner, Emiko, Garver-Daniels, Nate, Gentile, Peter, Gersbach, Kyle, Glaser, Joseph, Good, Deborah, Harris, C., Hazboun, Jeffrey, Jennings, Ross, Johnson, Aaron, Jones, Megan, Kaplan, David, Kerr, Matthew, Key, Joey, Laal, Nima, Lam, Michael, Lamb, William, Larsen, Bjorn, Lazio, T., Lewandowska, Natalia, Liu, Tingting, Lorimer, Duncan, Luo, Jing, Lynch, Ryan, Ma, Chung-Pei, Madison, Dustin, McEwen, Alexander, McKee, James, McLaughlin, Maura, McMann, Natasha, Meyers, Bradley, Meyers, Patrick, Mingarelli, Chiara, Mitridate, Andrea, Ng, Cherry, Nice, David, Ocker, Stella, Olum, Ken, Pennucci, Timothy, Perera, Benetge, Petrov, Polina, Pol, Nihan, Radovan, Henri, Ransom, Scott, Ray, Paul, Romano, Joseph, Runnoe, Jessie, Saffer, Alexander, Sardesai, Shashwat, Schmiedekamp, A., Schmiedekamp, Carl, Schmitz, Kai, Shapiro-Albert, Brent, Siemens, Xavier, Fiscella, Sophia Sosa, Stairs, Ingrid, Stinebring, Daniel, Stovall, Kevin, Susobhanan, Abhimanyu, Swiggum, Joseph, Taylor, Jacob, Taylor, Stephen, Thompson, Mercedes, Turner, Jacob, Vallisneri, Michele, van Haasteren, Rutger, Vigeland, Sarah, Wahl, Haley, Wilson, Kevin, Witt, Caitlin, Wright, David, Young, Olivia
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2508.18126
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author Matt, Cayenne
Gultekin, Kayhan
Kelley, Luke
Blecha, Laura
Simon, Joseph
Agazie, Gabriella
Anumarlapudi, Akash
Archibald, Anne
Arzoumanian, Zaven
Baier, Jeremy
Baker, Paul
Bécsy, Bence
Brazier, Adam
Brook, Paul
Burke-Spolaor, Sarah
Burnette, Rand
Case, Robin
Casey-Clyde, James
Charisi, Maria
Chatterjee, Shami
Cohen, Tyler
Cordes, James
Cornish, Neil
Crawford, Fronefield
Cromartie, H. Thankful
Crowter, Kathryn
DeCesar, Megan
Demorest, Paul
Deng, Heling
Dey, Lankeswar
Dolch, Timothy
Ferrara, Elizabeth
Fiore, William
Fonseca, Emmanuel
Freedman, Gabriel
Gardiner, Emiko
Garver-Daniels, Nate
Gentile, Peter
Gersbach, Kyle
Glaser, Joseph
Good, Deborah
Harris, C.
Hazboun, Jeffrey
Jennings, Ross
Johnson, Aaron
Jones, Megan
Kaplan, David
Kerr, Matthew
Key, Joey
Laal, Nima
Lam, Michael
Lamb, William
Larsen, Bjorn
Lazio, T.
Lewandowska, Natalia
Liu, Tingting
Lorimer, Duncan
Luo, Jing
Lynch, Ryan
Ma, Chung-Pei
Madison, Dustin
McEwen, Alexander
McKee, James
McLaughlin, Maura
McMann, Natasha
Meyers, Bradley
Meyers, Patrick
Mingarelli, Chiara
Mitridate, Andrea
Ng, Cherry
Nice, David
Ocker, Stella
Olum, Ken
Pennucci, Timothy
Perera, Benetge
Petrov, Polina
Pol, Nihan
Radovan, Henri
Ransom, Scott
Ray, Paul
Romano, Joseph
Runnoe, Jessie
Saffer, Alexander
Sardesai, Shashwat
Schmiedekamp, A.
Schmiedekamp, Carl
Schmitz, Kai
Shapiro-Albert, Brent
Siemens, Xavier
Fiscella, Sophia Sosa
Stairs, Ingrid
Stinebring, Daniel
Stovall, Kevin
Susobhanan, Abhimanyu
Swiggum, Joseph
Taylor, Jacob
Taylor, Stephen
Thompson, Mercedes
Turner, Jacob
Vallisneri, Michele
van Haasteren, Rutger
Vigeland, Sarah
Wahl, Haley
Wilson, Kevin
Witt, Caitlin
Wright, David
Young, Olivia
author_facet Matt, Cayenne
Gultekin, Kayhan
Kelley, Luke
Blecha, Laura
Simon, Joseph
Agazie, Gabriella
Anumarlapudi, Akash
Archibald, Anne
Arzoumanian, Zaven
Baier, Jeremy
Baker, Paul
Bécsy, Bence
Brazier, Adam
Brook, Paul
Burke-Spolaor, Sarah
Burnette, Rand
Case, Robin
Casey-Clyde, James
Charisi, Maria
Chatterjee, Shami
Cohen, Tyler
Cordes, James
Cornish, Neil
Crawford, Fronefield
Cromartie, H. Thankful
Crowter, Kathryn
DeCesar, Megan
Demorest, Paul
Deng, Heling
Dey, Lankeswar
Dolch, Timothy
Ferrara, Elizabeth
Fiore, William
Fonseca, Emmanuel
Freedman, Gabriel
Gardiner, Emiko
Garver-Daniels, Nate
Gentile, Peter
Gersbach, Kyle
Glaser, Joseph
Good, Deborah
Harris, C.
Hazboun, Jeffrey
Jennings, Ross
Johnson, Aaron
Jones, Megan
Kaplan, David
Kerr, Matthew
Key, Joey
Laal, Nima
Lam, Michael
Lamb, William
Larsen, Bjorn
Lazio, T.
Lewandowska, Natalia
Liu, Tingting
Lorimer, Duncan
Luo, Jing
Lynch, Ryan
Ma, Chung-Pei
Madison, Dustin
McEwen, Alexander
McKee, James
McLaughlin, Maura
McMann, Natasha
Meyers, Bradley
Meyers, Patrick
Mingarelli, Chiara
Mitridate, Andrea
Ng, Cherry
Nice, David
Ocker, Stella
Olum, Ken
Pennucci, Timothy
Perera, Benetge
Petrov, Polina
Pol, Nihan
Radovan, Henri
Ransom, Scott
Ray, Paul
Romano, Joseph
Runnoe, Jessie
Saffer, Alexander
Sardesai, Shashwat
Schmiedekamp, A.
Schmiedekamp, Carl
Schmitz, Kai
Shapiro-Albert, Brent
Siemens, Xavier
Fiscella, Sophia Sosa
Stairs, Ingrid
Stinebring, Daniel
Stovall, Kevin
Susobhanan, Abhimanyu
Swiggum, Joseph
Taylor, Jacob
Taylor, Stephen
Thompson, Mercedes
Turner, Jacob
Vallisneri, Michele
van Haasteren, Rutger
Vigeland, Sarah
Wahl, Haley
Wilson, Kevin
Witt, Caitlin
Wright, David
Young, Olivia
contents We test the impact of an evolving supermassive black hole (SMBH) mass scaling relation (Mbh-Mbulge) on the predictions for the gravitational wave background (GWB). The observed GWB amplitude is 2-3 times higher than predicted by astrophysically informed models which suggests the need to revise the assumptions in those models. We compare a semi-analytic model's ability to reproduce the observed GWB spectrum with a static versus evolving-amplitude Mbh-Mbulge relation. We additionally consider the influence of the choice of galaxy stellar mass function on the modeled GWB spectra. Our models are able to reproduce the GWB amplitude with either a large number density of massive galaxies or a positively evolving Mbh-Mbulge amplitude (i.e., the Mbh / Mbulge ratio was higher in the past). If we assume that the Mbh-Mbulge amplitude does not evolve, our models require a galaxy stellar mass function that implies an undetected population of massive galaxies (Mstellar > 10^11 Msun at z > 1). When the Mbh-Mbulge amplitude is allowed to evolve, we can model the GWB spectrum with all fiducial values and an Mbh-Mbulge amplitude that evolves as alpha(z) = alpha_0 (1 + z)^(1.04 +/- 0.5).
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publishDate 2025
record_format arxiv
spellingShingle Inferring Mbh-Mbulge Evolution from the Gravitational Wave Background
Matt, Cayenne
Gultekin, Kayhan
Kelley, Luke
Blecha, Laura
Simon, Joseph
Agazie, Gabriella
Anumarlapudi, Akash
Archibald, Anne
Arzoumanian, Zaven
Baier, Jeremy
Baker, Paul
Bécsy, Bence
Brazier, Adam
Brook, Paul
Burke-Spolaor, Sarah
Burnette, Rand
Case, Robin
Casey-Clyde, James
Charisi, Maria
Chatterjee, Shami
Cohen, Tyler
Cordes, James
Cornish, Neil
Crawford, Fronefield
Cromartie, H. Thankful
Crowter, Kathryn
DeCesar, Megan
Demorest, Paul
Deng, Heling
Dey, Lankeswar
Dolch, Timothy
Ferrara, Elizabeth
Fiore, William
Fonseca, Emmanuel
Freedman, Gabriel
Gardiner, Emiko
Garver-Daniels, Nate
Gentile, Peter
Gersbach, Kyle
Glaser, Joseph
Good, Deborah
Harris, C.
Hazboun, Jeffrey
Jennings, Ross
Johnson, Aaron
Jones, Megan
Kaplan, David
Kerr, Matthew
Key, Joey
Laal, Nima
Lam, Michael
Lamb, William
Larsen, Bjorn
Lazio, T.
Lewandowska, Natalia
Liu, Tingting
Lorimer, Duncan
Luo, Jing
Lynch, Ryan
Ma, Chung-Pei
Madison, Dustin
McEwen, Alexander
McKee, James
McLaughlin, Maura
McMann, Natasha
Meyers, Bradley
Meyers, Patrick
Mingarelli, Chiara
Mitridate, Andrea
Ng, Cherry
Nice, David
Ocker, Stella
Olum, Ken
Pennucci, Timothy
Perera, Benetge
Petrov, Polina
Pol, Nihan
Radovan, Henri
Ransom, Scott
Ray, Paul
Romano, Joseph
Runnoe, Jessie
Saffer, Alexander
Sardesai, Shashwat
Schmiedekamp, A.
Schmiedekamp, Carl
Schmitz, Kai
Shapiro-Albert, Brent
Siemens, Xavier
Fiscella, Sophia Sosa
Stairs, Ingrid
Stinebring, Daniel
Stovall, Kevin
Susobhanan, Abhimanyu
Swiggum, Joseph
Taylor, Jacob
Taylor, Stephen
Thompson, Mercedes
Turner, Jacob
Vallisneri, Michele
van Haasteren, Rutger
Vigeland, Sarah
Wahl, Haley
Wilson, Kevin
Witt, Caitlin
Wright, David
Young, Olivia
High Energy Astrophysical Phenomena
Astrophysics of Galaxies
We test the impact of an evolving supermassive black hole (SMBH) mass scaling relation (Mbh-Mbulge) on the predictions for the gravitational wave background (GWB). The observed GWB amplitude is 2-3 times higher than predicted by astrophysically informed models which suggests the need to revise the assumptions in those models. We compare a semi-analytic model's ability to reproduce the observed GWB spectrum with a static versus evolving-amplitude Mbh-Mbulge relation. We additionally consider the influence of the choice of galaxy stellar mass function on the modeled GWB spectra. Our models are able to reproduce the GWB amplitude with either a large number density of massive galaxies or a positively evolving Mbh-Mbulge amplitude (i.e., the Mbh / Mbulge ratio was higher in the past). If we assume that the Mbh-Mbulge amplitude does not evolve, our models require a galaxy stellar mass function that implies an undetected population of massive galaxies (Mstellar > 10^11 Msun at z > 1). When the Mbh-Mbulge amplitude is allowed to evolve, we can model the GWB spectrum with all fiducial values and an Mbh-Mbulge amplitude that evolves as alpha(z) = alpha_0 (1 + z)^(1.04 +/- 0.5).
title Inferring Mbh-Mbulge Evolution from the Gravitational Wave Background
topic High Energy Astrophysical Phenomena
Astrophysics of Galaxies
url https://arxiv.org/abs/2508.18126