Discussions concerning all matters of humanity’s ascension into a higher dimensional existence culminating in 2012
One hundred years after Albert Einstein published his theory of general relativity, the Hubble Space Telescope has provided a demonstration of the theory at work: a picture of a distant galaxy so massive that its gravitational field is bending the light from an even more distant supernova.
The image, released Thursday, shows how the flash from the supernova’s blast has been warped into four points of light surrounding an elliptical galaxy in a cluster called MACS J1149.2+2223, which is 5 billion light-years away in the constellation Leo.
“It really threw me for a loop when I spotted the four images surrounding the galaxy,” Patrick Kelly, an astronomer from the University of California at Berkeley, said in a news release. “It was a complete surprise.”
Maybe it shouldn’t have been. The configuration is known as an Einstein Cross. It’s a well-known but rarely seen effect of gravitational lensing, which is in line with Einstein’s assertion that a massive object warps the fabric of space-time — and thus warps the path taken by light rays around the object.
In this case, the light rays are coming from a stellar explosion that’s directly behind the galaxy, but 4.3 million light-years more distant. Computer models suggest that the four-pointed cross will eventually fade away, to be followed within the next five years by the reappearance of the supernova’s flash as a single image.
Kelly is part of a research collaboration known as the Grism Lens Amplified Survey from Space, or GLASS. The collaboration is working with the Frontier Field Supernova team, or FrontierSN, to analyze the exploding star. He’s also the lead author of a paper on the phenomenon that’s being published this week by the journal Science as part of a package marking the 100th anniversary of Einstein’s general relativity theory.
The researchers suggest that a high-resolution analysis of the gravitational lensing effect can lead to better measurements of cosmic distances and galactic masses, including the contribution from dark matter. The Hubble team says the faraway supernova has been named “Refsdal” in honor of Norwegian astronomer Sjur Refsdal, who proposed using time-delayed images from a lensed supernova to study the expansion of the universe.
“Astronomers have been looking to find one ever since,” UCLA astronomer Tommaso Treu, the GLASS project’s principal investigator, said in Thursday’s news release. “The long wait is over!”
The Einstein Cross is the subject of a Google+ Hangout at 3 p.m. ET Thursday, presented by the Hubble science team. You can watch the event now or later via YouTube. Check out a preprint version of the Science report.
Nope. Never mind the plasma-lensing fact of life, there’s a bigger problem.
You’ll find some of the issues at this link. Never mind Wild Heretic’s guesses, look at the problems with different wavelengths not following the same path, under ” Superimposed infrared/visible light video” –
the link is: http://www.wildheretic.com/horizon/
Also contemplate the Bedford Level experiments.
When we travel upon the Earth, we encounter about 8 inches per mile of curvature. But with visible light,
the Earth is more or less flat for several miles, as the formula for the curvature of a sphere tells you.
Ask yourself why the auroras are rippling sheets.
Ask yourself how we can get a clear picture of a spiral galaxy 10 billion light years away. The stars in the background are thousands of light years further away. And we’re moving at millions of miles per hour, relative to that galaxy. Background stars and foreground stars should be along different lines of sight.
As for Einstein, curved space, and an expanding universe, a child could disprove that. And if you can’t,
don’t bother trying to understand the behavior of light. Einstein’s 3 dimensions of space, and time as a dimension, are as obviously and as ridiculously wrong as the flat earth theory.