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author Kader, Justin A.
U, Vivian
Barcos-Muñoz, Loreto
Bianchin, Marina
Linden, Sean T.
Song, Yiqing
Canalizo, Gabriela
Aravindan, Archana
Díaz-Santos, George C. Privon Tanio
Hayward, Christopher
Malkan, Matthew A.
Armus, Lee
McGurk, Rosalie C.
Rich, Jeffrey A.
Medling, Anne M.
Stierwalt, Sabrina
Max, Claire E.
Evans, Aaron S.
Agostino, Christopher J.
Charmandaris, Vassilis
Gao, Tianmu
Howell, Justin H.
Inami, Hanae
Lai, Thomas S. -Y.
Larson, Kirsten L.
Martin, Christopher D.
Matuszewski, Mateusz
Mazzarella, Joseph M.
Neill, James D.
Prusinski, Nikolaus Z.
Remigio, Raymond
Sanders, David B.
Surace, Jason
author_facet Kader, Justin A.
U, Vivian
Barcos-Muñoz, Loreto
Bianchin, Marina
Linden, Sean T.
Song, Yiqing
Canalizo, Gabriela
Aravindan, Archana
Díaz-Santos, George C. Privon Tanio
Hayward, Christopher
Malkan, Matthew A.
Armus, Lee
McGurk, Rosalie C.
Rich, Jeffrey A.
Medling, Anne M.
Stierwalt, Sabrina
Max, Claire E.
Evans, Aaron S.
Agostino, Christopher J.
Charmandaris, Vassilis
Gao, Tianmu
Howell, Justin H.
Inami, Hanae
Lai, Thomas S. -Y.
Larson, Kirsten L.
Martin, Christopher D.
Matuszewski, Mateusz
Mazzarella, Joseph M.
Neill, James D.
Prusinski, Nikolaus Z.
Remigio, Raymond
Sanders, David B.
Surace, Jason
contents To reproduce observed galaxy properties, cosmological simulations require that massive galaxies experience feedback from active galactic nuclei, which regulates star formation within those galaxies. However, the energetics and timescales of these feedback processes are poorly constrained. We combine optical, infrared, sub-millimeter and radio observations of the active galaxy VV 340a, hosting a low-power jet launched from a supermassive black hole at its center. We find that the jet undergoes precession, with a period of (8.2 $\pm~$5.5) $\times~$10$^5$ years, and drives an outflow of gas at a rate of 19.4 $\pm~$7.9 solar masses per year. The jet shocks the gas, producing highly ionized plasma extending several kiloparsecs from the nucleus. The outflow ejects sufficient gas from the galaxy to influence its star formation rate.
format Preprint
id arxiv_https___arxiv_org_abs_2601_08791
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle A precessing jet from an active galactic nucleus drives gas outflow from a disk galaxy
Kader, Justin A.
U, Vivian
Barcos-Muñoz, Loreto
Bianchin, Marina
Linden, Sean T.
Song, Yiqing
Canalizo, Gabriela
Aravindan, Archana
Díaz-Santos, George C. Privon Tanio
Hayward, Christopher
Malkan, Matthew A.
Armus, Lee
McGurk, Rosalie C.
Rich, Jeffrey A.
Medling, Anne M.
Stierwalt, Sabrina
Max, Claire E.
Evans, Aaron S.
Agostino, Christopher J.
Charmandaris, Vassilis
Gao, Tianmu
Howell, Justin H.
Inami, Hanae
Lai, Thomas S. -Y.
Larson, Kirsten L.
Martin, Christopher D.
Matuszewski, Mateusz
Mazzarella, Joseph M.
Neill, James D.
Prusinski, Nikolaus Z.
Remigio, Raymond
Sanders, David B.
Surace, Jason
Astrophysics of Galaxies
High Energy Astrophysical Phenomena
To reproduce observed galaxy properties, cosmological simulations require that massive galaxies experience feedback from active galactic nuclei, which regulates star formation within those galaxies. However, the energetics and timescales of these feedback processes are poorly constrained. We combine optical, infrared, sub-millimeter and radio observations of the active galaxy VV 340a, hosting a low-power jet launched from a supermassive black hole at its center. We find that the jet undergoes precession, with a period of (8.2 $\pm~$5.5) $\times~$10$^5$ years, and drives an outflow of gas at a rate of 19.4 $\pm~$7.9 solar masses per year. The jet shocks the gas, producing highly ionized plasma extending several kiloparsecs from the nucleus. The outflow ejects sufficient gas from the galaxy to influence its star formation rate.
title A precessing jet from an active galactic nucleus drives gas outflow from a disk galaxy
topic Astrophysics of Galaxies
High Energy Astrophysical Phenomena
url https://arxiv.org/abs/2601.08791