In reply to  Axil Axil's message of Sat, 12 Jul 2014 19:21:07 -0400:
Hi,

They're obviously seeing XUV from Hydrino production in free space. ;)
(If the dark matter is Hydrinos's as Mills claims, then disproportionation
reactions should produce XUV.)


>On Sat, Jul 12, 2014 at 7:03 PM, H Veeder <[email protected]> wrote:
>
>> CU-Boulder instrument onboard Hubble reveals the universe is ‘missing’
>> light
>>
>> http://tinyurl.com/qzs4rjo
>>
>> July 9, 2014 •
>>
>> Something is amiss in the universe. There appears to be an enormous
>> deficit of ultraviolet light in the cosmic budget.
>>
>> Observations made by the Cosmic Origins Spectrograph, a $70 million
>> instrument designed by the University of Colorado Boulder and installed on
>> the Hubble Space Telescope, have revealed that the universe is “missing” a
>> large amount of light.
>>
>> “It’s as if you’re in a big, brightly lit room, but you look around and
>> see only a few 40-watt lightbulbs,” said the Carnegie Institution for
>> Science’s Juna Kollmeier, lead author of a new study on the missing light
>> published in The Astrophysical Journal Letters. “Where is all that light
>> coming from? It’s missing from our census.”
>>
>> The research team—which includes Benjamin Oppenheimer and Charles Danforth
>> of CU-Boulder’s Center for Astrophysics and Space Astronomy—analyzed the
>> tendrils of hydrogen that bridge the vast reaches of empty space between
>> galaxies. When hydrogen atoms are struck by highly energetic ultraviolet
>> light, they are transformed from electrically neutral atoms to charged ions.
>>
>> The astronomers were surprised when they found far more hydrogen ions than
>> could be explained with the known ultraviolet light in the universe, which
>> comes primarily from quasars. The difference is a stunning 400 percent.
>>
>> Strangely, this mismatch only appears in the nearby, relatively
>> well-studied cosmos. When telescopes focus on galaxies billions of light
>> years away—which shows astronomers what was happening when the universe was
>> young—everything seems to add up. The fact that the accounting of light
>> needed to ionize hydrogen works in the early universe but falls apart
>> locally has scientists puzzled.
>>
>> The mismatch emerged from comparing supercomputer simulations of
>> intergalactic gas to the most recent analysis of observations from the
>> Cosmic Origins Spectrograph.
>>
>> “The simulations fit the data beautifully in the early universe, and they
>> fit the local data beautifully if we’re allowed to assume that this extra
>> light is really there,” said CU-Boulder’s Oppenheimer. “It’s possible the
>> simulations do not reflect reality, which by itself would be a surprise,
>> because intergalactic hydrogen is the component of the universe that we
>> think we understand the best.”
>>
>> The type of light that is energetic enough to turn neutral hydrogen into
>> hydrogen ions is called “ionizing photons” and is known to come from only
>> two sources in the universe: quasars, which are powered by hot gas falling
>> onto supermassive black holes over a million times the mass of the sun, and
>> the hottest young stars. Observations indicate that the ionizing photons
>> from young stars are almost always absorbed by gas in their host galaxy, so
>> they never escape to affect intergalactic hydrogen. But the number of known
>> quasars is far lower than needed to produce the amount of light necessary
>> to create the quantity of hydrogen ions measured by the research team.
>>
>>
>> “If we count up the known sources of ultraviolet ionizing photons, we come
>> up five times too short,” Oppenheimer said. “We are missing 80 percent of
>> the ionizing photons, and the question is where are they coming from? The
>> most fascinating possibility is that an exotic new source, not quasars or
>> galaxies, is responsible for the missing photons.”
>>
>> For example, the mysterious dark matter, which holds galaxies together but
>> has never been seen directly, could itself decay and ultimately be
>> responsible for this extra light.
>>
>> “The great thing about a 400 percent discrepancy is that you know
>> something is really wrong,” said co-author David Weinberg of Ohio State
>> University. “We still don't know for sure what it is, but at least one
>> thing we thought we knew about the present day universe isn’t true.”
>>
>> Other co-authors on the study are Francesco Haardt of the Università
>> dell’Insubria, Romeel Davé of the University of the Western Cape, Mark
>> Fardal of University of Massachusetts Amherst, Piero Madau of the
>> University of California, Santa Cruz, Amanda Ford of the University of
>> Arizona, Molly Peeples of the Space Telescope Science Institute, and Joseph
>> McEwen of Ohio State University.
>>
>> The study was funded in part by NASA, the National Science Foundation and
>> the Ahmanson Foundation.
>>
Regards,

Robin van Spaandonk

http://rvanspaa.freehostia.com/project.html

Reply via email to