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"Star formation determines the character of a galaxy," Morris said. "And that's something we care about because stars produce the heavy elements out of which planets—and life—are made."
To better understand what becomes of that outflow of energy, Morris and his colleagues pointed the European Space Agency's XMM-Newton satellite, which detects cosmic X-rays, toward the center of the Milky Way. Because X-rays are emitted by extremely hot gas, they are especially useful for mapping energetic environments in space.
In images they collected from 2016 to 2018 and in 2012, the researchers found two plumes of X-rays—the galactic center chimneys—stretching in opposite directions from the central hub of the galaxy. Each plume originates within about 160 light-years of the supermassive black hole and spans over 500 light-years.
The chimneys hook up to two gargantuan structures known as the Fermi bubbles, cavities carved out of the gas that envelops the galaxy. The bubbles, which are filled with high-speed particles, straddle the center of the galaxy and stretch for 25,000 light-years in either direction. Some astronomers suspect that the Fermi bubbles are relics of massive eruptions from the supermassive black hole, while others think the bubbles are blown out by hordes of newly born stars. Either way, the chimneys could be the conduits through which high-speed particles get there.
Understanding how energy makes its way from a galaxy's center to its outer limits could provide insights into why some galaxies are bursting with star formation whereas others are dormant.
"In extreme cases, that fountain of energy can either trigger or shut off star formation in the galaxy," Morris said.
originally posted by: TEOTWAWKIAIFF
Credit: Gabriele Ponti/MPE/INAF and Mark Morris/UCLA
"Star formation determines the character of a galaxy," Morris said. "And that's something we care about because stars produce the heavy elements out of which planets—and life—are made."
To better understand what becomes of that outflow of energy, Morris and his colleagues pointed the European Space Agency's XMM-Newton satellite, which detects cosmic X-rays, toward the center of the Milky Way. Because X-rays are emitted by extremely hot gas, they are especially useful for mapping energetic environments in space.
In images they collected from 2016 to 2018 and in 2012, the researchers found two plumes of X-rays—the galactic center chimneys—stretching in opposite directions from the central hub of the galaxy. Each plume originates within about 160 light-years of the supermassive black hole and spans over 500 light-years.
The chimneys hook up to two gargantuan structures known as the Fermi bubbles, cavities carved out of the gas that envelops the galaxy. The bubbles, which are filled with high-speed particles, straddle the center of the galaxy and stretch for 25,000 light-years in either direction. Some astronomers suspect that the Fermi bubbles are relics of massive eruptions from the supermassive black hole, while others think the bubbles are blown out by hordes of newly born stars. Either way, the chimneys could be the conduits through which high-speed particles get there.
phys.org, March 20, 2019 -
originally posted by: TEOTWAWKIAIFF
I like the black hole/white hole idea. That would keep the quantum checkbook balanced at least.
originally posted by: TEOTWAWKIAIFF
a reply to: BlackIbanez
Ok. (Ya’ll can, and should, correct me when I misspeak)
BH ingest matter from the universe we see. There is some controversy as to what happens next:
A - Does the matter just exit the Universe to never be seen again? If so, the whole, “matter is neither created or destroyed” law is violated.
Or,
B - Is the “drain” that is the BH connected to a mirror object, a white hole, where matter and/or information emerges.
Cosmology worries that if matter leaves Universe then their theories are not correct.
(Everybody, close?)
Instead, the collapsing matter on the other side of the event horizon reaches an enormous but finite density and rebounds, forming a regular Einstein–Rosen bridge [i.e., a wormhole]. The other side of the bridge becomes a new, growing baby universe. For observers in the baby universe, the parent universe appears as the only white hole.