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Sunday, June 07, 2020

August 17, 2017 Sassy's Extreme States of Matter Hydro Sic Hydra Gamma Rays Grubstake


I felt it in real time. I was/am on a tree, way up on a ladder, working on a house painting project for a slumland lord newcomer' ex girl cunt, drinking coors out of west linn and donut fed poodles\\

sourchasm

really, in actual real time> a limb is was lopping, way up 16 plus feet on a tree

as a house painter at a asbestos shingled slum landlady west linn cunt's place that had as she describeed in Hernry Miller detail all the neglect she'd shat on the 24 years she and her appopriately despick ed. non ucation Esotieric Kenn Babbsian product placement to be vilified.

novichok, door handles that era also i noticed, immune.

passing all test, a small sum arrived. very vary unvaried insignificant.

even that freely flowing into my local economy in generous patronage of not having spent my money in maui making new howlie babies


ok i shut up


"The Homestake Mine was a deep underground gold mine located in Lead, South Dakota. Until it closed in 2002 it was the largest and deepest gold mine in North America.

*** speck
says Lily Tomlin

"1,240,000 kg) of gold"




"The six happiest people in the world" on August 17, 2017. Salvatore Vitale (left) snapped this photo moments after first seeing the LLO scan. The tell-tale trace of gravitational waves generated by merging neutron stars was clearly visiible. (Clockwise from top: Chris van den Broeck, Jo van den Brand, Peter Pang, Ka Wa Tsang, and Michalis Agathos. Image: Salvo Vitale, with permission.)





The mine produced more than forty million troy ounces (43,900,000 oz; 1,240,000 kg) of gold during its lifetime.

 This is about 70.75 m3 or a volume of gold roughly equal to 18, 677 gallons (a cube with each side being roughly 4.14 metres).

The Homestake Mine is famous in scientific circles because of the work of a deep underground laboratory that was set up there in the mid-1960s.

This was the site where the solar neutrino problem was first discovered, in what is known as the Homestake Experiment. Raymond Davis Jr. conducted this experiment in the mid-1960s, which was the first to observe solar neutrinos.

On July 10, 2007, the mine was selected by the National Science Foundation as the location for the Deep Underground Science and Engineering Laboratory (DUSEL)

_________


"The Homestake deposit was discovered by Fred and Moses Manuel, Alex Engh, and Hank Harney in April 1876, during the Black Hills Gold Rush.

 A trio of mining entrepreneurs, George Hearst, Lloyd Tevis, and James Ben Ali Haggin, bought the claim from them for $70,000 in 1877.

George Hearst reached Deadwood in October 1877, and took active control of the mine property. Hearst had to arrange to haul in all the mining equipment by wagons from the nearest railhead in Sidney, Nebraska.

Arthur De Wint Foote worked as an engineer. Despite the remote location, deep mines were dug and ore began to be brought out. An 80-stamp mill was built and began crushing Homestake ore by July 1878.

In 1879 the partners sold shares in the Homestake Mining Company, and listed it on the New York Stock Exchange.

 The Homestake would become one of the longest-listed stocks in the history of the NYSE, as Homestake operated the mine until 2001.

Hearst consolidated and enlarged the Homestake property by fair and foul means. He bought out some adjacent claims, and secured others in the courts. A Hearst employee killed a man who refused to sell his claim, but was acquitted in court after all the witnesses disappeared.

 Hearst purchased newspapers in Deadwood to influence public opinion.

 An opposing newspaper editor was physically attacked on a Deadwood street. Hearst realized that he might be on the receiving end of violence, and wrote a letter to his partners asking them to provide for his family should he be murdered.

 But within three years, Hearst had established the mine and acquired significant claims; he walked out alive, and very rich.

By the time Hearst left the Black Hills in March 1879, he had added the claims of Giant, Golden Star, Netty, May Booth, Golden Star No. 2, Crown Point, Sunrise, and General Ellison to the original two claims of the Manuel Brothers, Golden Terra and Old Abe, totaling 30 acres (12 ha). The ten-stamp mill had become 200, and 500 employees worked in the mine, mills, offices and shops. Hearst owned the Boulder Ditch and water rights to Whitewood Creek, monopolizing the region.

 His railroad, Black Hills & Fort Pierre Railroad, gave him access to eastern Dakota Territory"

"By 1900, Homestake owned 300 claims, on 2,000 acres (810 ha), and was worked by more than 2000 employees.[5]:35,40,42 In 1901, the mine started using compressed air locomotives, fully replacing mules and horses by the 1920s.

 Charles Washington Merrill introduced cyanidization to augment mercury-amalgamation for gold recovery. "Cyanide Charlie" achieved 94 per cent recovery. The gold was shipped to the Denver Mint.[5]:49–51

By 1906, the Ellison Shaft reached 1,550 feet (472 m), the B&M 1,250 feet (381 m), the Golden Star 1,100 feet (335 m), and the Golden Prospect 900 feet (274 m), producing 1,500,000 short tons (1,300,000 long tons; 1,400,000 metric tons) of ore. A disastrous fire struck on 25 March 1907, which took forty days to extinguish after the mine was flooded. Another disastrous fire struck in 1919.[5]:52–53,59

In 1927, company geologist Donald H. McLaughlin used a winze from the 2,000 level to demonstrate that ore reached the 3,500 foot level.

The Ross shaft was started in 1934, a second winze from the 3,500-foot (1,100 m) level reached 4,100 feet (1,250 m), and a third winze from 4,100 feet (1,250 m) was started in 1937. The Yates shaft was started in 1938. Production ceased during World War II from 1943 until 1945, due to Limitation Order L-208 from the War Production Board. By 1975, mining operations had reached the 6,800-foot (2,073 m) level, and two winzes were planned to 8,000 feet (2,438 m).[5]:63–66,73–74

The gold ore mined at Homestake was considered low grade (less than one ounce per ton), but the body of ore was very large.[6] Through 2001, the mine produced 39,800,000 troy ounces (43,700,000 oz; 1,240,000 kg) of gold and 9,000,000 troy ounces (9,870,000 oz; 280,000 kg) of silver.[citation needed]

In terms of total production, the Lead mining district, of which the Homestake mine is the only producer, was the second-largest gold producer in the United States, after the Carlin district in Nevada. Homestake was the longest continually operating mine in United States history."



"On the morning of August 17, 2017, a ripple in space passed through our planet. It was detected by the LIGO and Virgo gravitational wave detectors. This cosmic disturbance came from a pair of city-sized neutron stars colliding at one third the speed of light. 

The energy of this collision surpassed any atom-smashing laboratory on Earth.

Hearing about the collision, astronomers around the world, including us, jumped into action. Telescopes large and small scanned the patch of sky where the gravitational waves came from.

Twelve hours later, three telescopes caught sight of a brand new star – called a kilonova – in a galaxy called NGC 4993, about 130 million light years from Earth.

Astronomers had captured the light from the cosmic fire of the colliding neutron stars. It was time to point the world’s biggest and best telescopes toward the new star to see the visible and infrared light from the collision’s aftermath. In Chile, the Gemini telescope swerved its large 26-foot mirror to the kilonova. NASA steered the Hubble to the same location."

"Observing the universe forging gold

But in this fading light was encoded the answer to the age-old question of how gold is made.

Shine sunlight through a prism and you will see our sun’s spectrum – the colors of the rainbow spread from short wavelength blue light to long wavelength red light. This spectrum contains the fingerprints of the elements bound up and forged in the sun. Each element is marked by a unique fingerprint of lines in the spectrum, reflecting the different atomic structure.

The spectrum of the kilonova contained the fingerprints of the heaviest elements in the universe. Its light carried the telltale signature of the neutron-star material decaying into platinum, gold and other so-called “r-process” elements."

"For the first time, humans had seen alchemy in action, the universe turning matter into gold.

And not just a small amount: This one collision created at least 10 Earths’ worth of gold.

 You might be wearing some gold or platinum jewelry right now. Take a look at it. That metal was created in the atomic fire of a neutron star collision in our own galaxy billions of years ago – a collision just like the one seen on August 17."

https://earthsky.org/space/how-the-universe-creates-gold


"LIGO’s latest gravitational wave detection has spawned an explosion of new science across the global astronomical community.

 On August 17, 2017, the two LIGO instruments (funded by the National Science Foundation) and its sister facility, Virgo, near Pisa, Italy, sensed tell-tale signs of the remnant cores of two massive stars spiraling toward and then smashing into each other some 130 million light years away. 

The objects were quickly identified as neutron stars, the collapsed cores of stars that were once much more massive than our Sun. They are called “neutron stars” because their matter is so densely packed it is composed primarily of neutrons.

One such star containing as much matter as our Sun would be just 10 to 15 km in diameter, and a teaspoon of its material would weigh about one-billion tons on Earth. 

Using the signals received in LIGO’s detectors, the masses of the neutron stars were determined to 1.1 to 1.6 times as massive as our Sun.

LIGO Hanford Observatory (LHO) Head, Michael Landry explained what LIGO saw when it made this landmark discovery:



*****He or a colleague from Hanford came into Sassy's in Portland, that night. I was there.

He/They was overwhelmed with joy, celebrating, modestly. In a Saloon that I frequented often myself for a decade, becoming a fixture and patron, modestly, watching the Gold motions of beautiful women.

100% TRUE

_____________

"“LIGO and Virgo detected 100 seconds of gravitational waves as these two neutron stars spiraled together in a massive and fiery collision,” he said. “In a sprawling follow-up campaign involving about one-quarter of the world’s professional astronomers, observatories in space and on the Earth have detected radiation in all wavelengths from gamma rays to radio waves. But the LIGO and Virgo detectors were absolutely essential in identifying and pinpointing the event in the sky, allowing this campaign to proceed”, Landry added.

This discovery adds a new way of learning about the universe through “multi-messenger astronomy”, where data from traditional telescopes, neutrino detectors, and now gravitational wave observatories are shared and compared to glean even deeper insights into the nature of the universe.

 https://www.ligo.caltech.edu/news/ligo20171016#:~:text=On%20August%2017%2C%202017%2C%20the,130%20million%20light%20years%20away.

When It Rains, It Pours

This historic detection came just three days after another historic detection, LIGO’s fourth, which was also detected by the Virgo interferometer in Pisa Italy, making it the first detection by Virgo, and the first three-detector observation of a gravitational wave. Reveling after that event, LIGO scientists were astonished to learn of yet another detection, this one completely different from anything LIGO had seen before.

Salvatore (Salvo) Vitale, assistant professor of physics at MIT, was attending a conference in Amsterdam along with other LIGO scientists, when he first got word of this second detection in 3 days. The first alert he received included a ‘false alarm rate’ (FAR), a measure of how likely it is that the event was not real. In this case, the FAR was reported as 3x10-12, which is, according to Vitale, “ridiculously low!”

How ridiculously low? This figure suggests that the chance that some random but nearly identical bits of ‘noise’ that happened to look like a gravitational waves appeared in the instruments at essentially the same time was less than 1 in 80,000 years.

Two minutes after that first alert, the first scan of the event, automatically generated from the Hanford data, was distributed, and it was distinctly different from anything LIGO had seen before. Signals of black hole mergers last just fractions of a second. This signal lasted well in excess of 30 seconds (in the end, it was shown to have lasted nearly 2 minutes, 500 times longer than black hole mergers). This was a clear indicator that the objects that created the signal were much less massive than black holes. To Vitale and everyone else, the unique properties of the signal could mean only one thing: LIGO had caught its first gravitational wave from merging neutron stars.

This was in itself a surprise, as Vitale explained. “I saw the omega scan from Hanford, and saw that there was a clear chirp signal, which I remember thinking is ridiculous, because we never thought we’d see anything in an omega scan from a binary neutron star merger … But this [one] was so loud that we saw it too!”

"As the pieces began to fall into place, the magnitude of LIGO’s detection became all the more weighty.

“Then it was, like… ‘Okay. Oookay…let’s take a chair… and sit down…” said Vitale, laughing as he recalled his feelings at that moment.

The only way to confirm a correlation between the GRB and the GW, however, would be to find the source object on the sky; but there was a problem. At that point, only the LIGO Hanford data had been processed and distributed; without the Livingston data, no such localization of a source would be possible.

Matt Evans (Assistant Professor of Physics at MIT) recalls the flurry of communication he was receiving in those early moments.

“There was this hubbub by Salvo talking about a signal at LHO that looked like a binary neutron star coincident with the Fermi alert. But there hadn’t been anything from Livingston, so there was a moment of doubt of the validity of the signal.”
___________

Deeper Meaning

Beyond the obvious scientific importance of this discovery, the importance of this event for the LIGO Laboratory and the wider collaboration goes much deeper. For many, this single detection represents the apex of careers, the culmination of decades of hard work and dedication to LIGO and gravitational wave science.

Dr. Fred Raab, Associate Director for Observatory Operations at the LIGO Hanford Observatory, shared what this latest discovery means to him:

“After nearly 30 years of working toward this discovery, I knew that observing the last minute of a binary neutron star system would give unprecedented precision in its parameters.

Yet I was unable to continue reading an early paper draft past where I first saw the number for the chirp mass, a key parameter of the system. I stared in wonder for minutes at that number, measured to 4 significant figures for a pair of stars more than 100 million light years from Earth.”

Raab continued, “This observation means that LIGO is transitioning now from studying extreme regions of space-time to extreme states of matter.”

___________

n August 2017,

 rumors circulated[18] regarding a short gamma-ray burst designated GRB 170817A, of the type conjectured to be emitted in the collision of two neutron stars.

 On 16 October 2017, the LIGO and Virgo collaborations announced that they had detected a gravitational wave event, designated GW170817. "

https://en.wikipedia.org/wiki/NGC_4993



NGC 4993 has a supermassive black hole with an estimated mass of roughly 80 to 100 million solar masses (8×107 M☉).

"A supermassive black hole (SMBH or sometimes SBH) is the largest type of black hole, containing a mass of the order of hundreds of thousands to billions of times the mass of the Sun (M☉). Black holes are a class of astronomical object that have undergone gravitational collapse, leaving behind spheroidal regions of space from which nothing can escape, not even light.

Observational evidence indicates that nearly all large galaxies contain a supermassive black hole, located at the galaxy's center.

 In the case of the Milky Way, the supermassive black hole corresponds to the location of Sagittarius A* at the Galactic Core.

Accretion of interstellar gas onto supermassive black holes is the process responsible for powering quasars and other types of active galactic nuclei."













Elon Musk is a shitty ignorant Trumper

I'll have that next chile

Low Rent Anti Union Bastard

Not of the USA

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