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huffingtonpost:

In celebration of the 22nd anniversary of the telescope, the Hubble science team released a mosaic image of stars forming in the Tarantula nebula.
Hubble Telescope Marks 22nd Anniversary Of Launch Into Space

huffingtonpost:

In celebration of the 22nd anniversary of the telescope, the Hubble science team released a mosaic image of stars forming in the Tarantula nebula.

Hubble Telescope Marks 22nd Anniversary Of Launch Into Space

(via npr)

Wild hearts can’t be tamed

Wild hearts can’t be tamed


Kanye West by Craig Redman.

Kanye West by Craig Redman.

(Source: howtotalktogirlsatparties)

npr:

Dark Energy And The Joy Of Being Wrong
Sometimes nature just throws you a loop. All your carefully laid plans, all your exquisite calculations, all your deeply held beliefs and expectations get blown away in the simple eloquence of real data from the real world. That is how Dark Energy made its appearance into the world of cosmology. Its not just that folks weren’t expecting it. They were, in fact, expecting the very opposite.
Last week I explained how Dark Matter was “discovered” (inferred really), based on observations over decades of the gravitational influence it exerts on matter we can see (the stuff we are made of). Dark Energy was discovered in a similar way, except that it arrived all at once in one big, fat surprise package.
The year was 1998 and two highly competitive groups of astronomers were each rushing toward the same goal: they hoped to hunt down the effects of gravitational braking in the universe. Ever since astronomers had accepted the idea of the Big Bang, they had been out hunting for its subsequent cosmic deceleration.
The idea was simple.
While the Big Bang blows space apart (it literally stretches all points of space-time away from each other), the gravitational pull of matter should, over time, slow down that initial burst of cosmic expansion. The two research groups, (Berkeley vs. Harvard), were racing to find the magnitude of deceleration in the universe. It was a critical project since the rate of cosmic braking is directly related to the total density of mass (and energy) in the universe. It would be a Nobel Prize-worthy result.
Things didn’t go quite as planned. -Adam Frank (Photo credit: WMAP/NASA)

npr:

Dark Energy And The Joy Of Being Wrong

Sometimes nature just throws you a loop. All your carefully laid plans, all your exquisite calculations, all your deeply held beliefs and expectations get blown away in the simple eloquence of real data from the real world. That is how Dark Energy made its appearance into the world of cosmology. Its not just that folks weren’t expecting it. They were, in fact, expecting the very opposite.

Last week I explained how Dark Matter was “discovered” (inferred really), based on observations over decades of the gravitational influence it exerts on matter we can see (the stuff we are made of). Dark Energy was discovered in a similar way, except that it arrived all at once in one big, fat surprise package.

The year was 1998 and two highly competitive groups of astronomers were each rushing toward the same goal: they hoped to hunt down the effects of gravitational braking in the universe. Ever since astronomers had accepted the idea of the Big Bang, they had been out hunting for its subsequent cosmic deceleration.

The idea was simple.

While the Big Bang blows space apart (it literally stretches all points of space-time away from each other), the gravitational pull of matter should, over time, slow down that initial burst of cosmic expansion. The two research groups, (Berkeley vs. Harvard), were racing to find the magnitude of deceleration in the universe. It was a critical project since the rate of cosmic braking is directly related to the total density of mass (and energy) in the universe. It would be a Nobel Prize-worthy result.

Things didn’t go quite as planned. -Adam Frank (Photo credit: WMAP/NASA)

“I look up at the night sky, and I know that, yes, we are part of this Universe, we are in this Universe, but perhaps more important than both of those facts is that the Universe is in us. When I reflect on that fact, I look up—many people feel small, because they’re small and the Universe is big, but I feel big, because my atoms came from those stars” - Neil deGrasse Tyson  

(Source: acciobojan, via e-pic)

Light skeletons and figures by Photographer Janne Parviainen (via)

(Source: gaksdesigns, via thebodiesobtained)

Miles Aldrige

Miles Aldrige

(via f-l-e-u-r-d-e-l-y-s)

huffingtonpost:

In celebration of the 22nd anniversary of the telescope, the Hubble science team released a mosaic image of stars forming in the Tarantula nebula.
Hubble Telescope Marks 22nd Anniversary Of Launch Into Space

huffingtonpost:

In celebration of the 22nd anniversary of the telescope, the Hubble science team released a mosaic image of stars forming in the Tarantula nebula.

Hubble Telescope Marks 22nd Anniversary Of Launch Into Space

(via npr)

(Source: e-pic)

thegildedcentury:

Life, November 14, 1944

thegildedcentury:

Life, November 14, 1944

(via life)

Wild hearts can’t be tamed

Wild hearts can’t be tamed


Kanye West by Craig Redman.

Kanye West by Craig Redman.

(Source: howtotalktogirlsatparties)

npr:

Dark Energy And The Joy Of Being Wrong
Sometimes nature just throws you a loop. All your carefully laid plans, all your exquisite calculations, all your deeply held beliefs and expectations get blown away in the simple eloquence of real data from the real world. That is how Dark Energy made its appearance into the world of cosmology. Its not just that folks weren’t expecting it. They were, in fact, expecting the very opposite.
Last week I explained how Dark Matter was “discovered” (inferred really), based on observations over decades of the gravitational influence it exerts on matter we can see (the stuff we are made of). Dark Energy was discovered in a similar way, except that it arrived all at once in one big, fat surprise package.
The year was 1998 and two highly competitive groups of astronomers were each rushing toward the same goal: they hoped to hunt down the effects of gravitational braking in the universe. Ever since astronomers had accepted the idea of the Big Bang, they had been out hunting for its subsequent cosmic deceleration.
The idea was simple.
While the Big Bang blows space apart (it literally stretches all points of space-time away from each other), the gravitational pull of matter should, over time, slow down that initial burst of cosmic expansion. The two research groups, (Berkeley vs. Harvard), were racing to find the magnitude of deceleration in the universe. It was a critical project since the rate of cosmic braking is directly related to the total density of mass (and energy) in the universe. It would be a Nobel Prize-worthy result.
Things didn’t go quite as planned. -Adam Frank (Photo credit: WMAP/NASA)

npr:

Dark Energy And The Joy Of Being Wrong

Sometimes nature just throws you a loop. All your carefully laid plans, all your exquisite calculations, all your deeply held beliefs and expectations get blown away in the simple eloquence of real data from the real world. That is how Dark Energy made its appearance into the world of cosmology. Its not just that folks weren’t expecting it. They were, in fact, expecting the very opposite.

Last week I explained how Dark Matter was “discovered” (inferred really), based on observations over decades of the gravitational influence it exerts on matter we can see (the stuff we are made of). Dark Energy was discovered in a similar way, except that it arrived all at once in one big, fat surprise package.

The year was 1998 and two highly competitive groups of astronomers were each rushing toward the same goal: they hoped to hunt down the effects of gravitational braking in the universe. Ever since astronomers had accepted the idea of the Big Bang, they had been out hunting for its subsequent cosmic deceleration.

The idea was simple.

While the Big Bang blows space apart (it literally stretches all points of space-time away from each other), the gravitational pull of matter should, over time, slow down that initial burst of cosmic expansion. The two research groups, (Berkeley vs. Harvard), were racing to find the magnitude of deceleration in the universe. It was a critical project since the rate of cosmic braking is directly related to the total density of mass (and energy) in the universe. It would be a Nobel Prize-worthy result.

Things didn’t go quite as planned. -Adam Frank (Photo credit: WMAP/NASA)

“I look up at the night sky, and I know that, yes, we are part of this Universe, we are in this Universe, but perhaps more important than both of those facts is that the Universe is in us. When I reflect on that fact, I look up—many people feel small, because they’re small and the Universe is big, but I feel big, because my atoms came from those stars” - Neil deGrasse Tyson  

(Source: acciobojan, via e-pic)

Light skeletons and figures by Photographer Janne Parviainen (via)

(Source: gaksdesigns, via thebodiesobtained)

About:

Thou knowest all--I cannot see.
I trust I shall not live in vain,
I know that we shall meet again,
In some divine eternity.

-Oscar Wilde
"The True Knowledge"