Tag: scenario (page 2 of 4)

Theoretical physics: The origins of space and time


Excerpt from nature.com
By Zeeya Merali


Many researchers believe that physics will not be complete until it can explain not just the behaviour of space and time, but where these entities come from.

“Imagine waking up one day and realizing that you actually live inside a computer game,” says Mark Van Raamsdonk, describing what sounds like a pitch for a science-fiction film. But for Van Raamsdonk, a physicist at the University of British Columbia in Vancouver, Canada, this scenario is a way to think about reality. If it is true, he says, “everything around us — the whole three-dimensional physical world — is an illusion born from information encoded elsewhere, on a two-dimensional chip”. That would make our Universe, with its three spatial dimensions, a kind of hologram, projected from a substrate that exists only in lower dimensions.

This 'holographic principle' is strange even by the usual standards of theoretical physics. But Van Raamsdonk is one of a small band of researchers who think that the usual ideas are not yet strange enough. If nothing else, they say, neither of the two great pillars of modern physics — general relativity, which describes gravity as a curvature of space and time, and quantum mechanics, which governs the atomic realm — gives any account for the existence of space and time. Neither does string theory, which describes elementary threads of energy.

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Zeeya Merali discusses some of the theories that are trying to explain the origins of space and time.


Van Raamsdonk and his colleagues are convinced that physics will not be complete until it can explain how space and time emerge from something more fundamental — a project that will require concepts at least as audacious as holography. They argue that such a radical reconceptualization of reality is the only way to explain what happens when the infinitely dense 'singularity' at the core of a black hole distorts the fabric of space-time beyond all recognition, or how researchers can unify atomic-level quantum theory and planet-level general relativity — a project that has resisted theorists' efforts for generations.

“All our experiences tell us we shouldn't have two dramatically different conceptions of reality — there must be one huge overarching theory,” says Abhay Ashtekar, a physicist at Pennsylvania State University in University Park.

Finding that one huge theory is a daunting challenge. Here, Nature explores some promising lines of attack — as well as some of the emerging ideas about how to test these concepts...

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How will the world end? From ‘demonic’ AI to nuclear war — seven scenarios that could end human race




news.nationalpost.com 


Humanity may have already created its own nemesis, Professor Stephen Hawking warned last week. The Cambridge University physicist claimed that new developments in the field of artificial intelligence (AI) mean that within a few decades, computers thousands of times more powerful than in existence today may decide to usurp their creators and effectively end humanity’s 100,000-year dominance of Earth.
This Terminator scenario is taken seriously by many scientists and technologists. Before Prof. Hawking made his remarks, Elon Musk, the genius behind the Tesla electric car and PayPal, had stated that “with artificial intelligence, we are summoning the demon,” comparing it unfavourably with nuclear war as the most potent threat to humanity’s existence.
Aside from the rise of the machines, many potential threats have been identified to our species, our civilization, even our planet. To keep you awake at night, here are seven of the most plausible.
Getty Images / ThinkStock
Getty Images / ThinkStockAn artist's depiction of an asteroid approaching Earth.
1. ASTEROID STRIKE
Our solar system is littered with billions of pieces of debris, from the size of large boulders to objects hundreds of kilometres across. We know that, from time to time, these hit the Earth. Sixty-five-million years ago, an object – possibly a comet a few times larger than the one on which the Philae probe landed last month – hit the Mexican coast and triggered a global winter that wiped out the dinosaurs. In 1908, a smaller object hit a remote part of Siberia and devastated hundreds of square kilometres of forest. Last week, 100 scientists, including Lord Rees of Ludlow, the Astronomer Royal, called for the creation of a global warning system to alert us if a killer rock is on the way.
Probability: remote in our lifetime, but one day we will be hit.
Result: there has been no strike big enough to wipe out all life on Earth – an “extinction-level event” – for at least three billion years. But a dino-killer would certainly be the end of our civilization and possibly our species.
Warner Bros.
Warner Bros.When artificial intelligence becomes self-aware, there is a chance it will look something like this scene from Terminator 3.
2. ARTIFICIAL INTELLIGENCE
Prof. Hawking is not worried about armies of autonomous drones taking over the world, but something more subtle – and more sinister. Some technologists believe that an event they call the Singularity is only a few decades away. This is a point at which the combined networked computing power of the world’s AI systems begins a massive, runaway increase in capability – an explosion in machine intelligence. By then, we will probably have handed over control to most of our vital systems, from food distribution networks to power plants, sewage and water treatment works, and the global banking system. The machines could bring us to our knees without a shot being fired. And we cannot simply pull the plug, because they control the power supplies.

Probability: unknown, although computing power is doubling every 18 months. We do not know if machines can be conscious or “want” to do anything, and sceptics point out that the cleverest computers in existence are currently no brighter than cockroaches.
Result: if the web wakes up and wants to sweep us aside, we may have a fight on our hands (perhaps even something similar to the man vs. machines battle in the Terminator films). But it is unlikely that the machines will want to destroy the planet – they “live” here, too.
Handout/AFP/Getty Images
Handout/AFP/Getty ImagesLaboratory technicians and physicians work on samples during research on the evolving Ebola disease in bats, at the Center for Emerging and Zoonotic Diseases research Laboratory of the National Institute for Communicable Diseases in Pretoria on Nov. 21, 2011.
3. A GENETICALLY CREATED PLAGUE
This is possibly the most terrifying short-term threat because it is so plausible. The reason Ebola has not become a worldwide plague – and will not do so – is because it is so hard to transmit, and because it incapacitates and kills its victims so quickly. However, a modified version of the disease that can be transmitted through the air, or which allows its host to travel around for weeks, symptom-free, could kill many millions. It is unknown whether any terror group has the knowledge or facilities to do something like this, but it is chilling to realize that the main reason we understand Ebola so well is that its potential to be weaponized was quickly realized by defence experts.
Probability: someone will probably try it one day.
Result: potentially catastrophic. “Ordinary” infectious diseases such as avian-flu strains have the capability to wipe out hundreds of millions of people.
AP Photo/U.S. Army via Hiroshima Peace Memorial Museum
AP Photo/U.S. Army via Hiroshima Peace Memorial MuseumA mushroom cloud billows about one hour after a nuclear bomb was detonated above Hiroshima, Japan Aug. 6, 1945.
4. NUCLEAR WAR
This is still the most plausible “doomsday” scenario. Despite arms-limitations treaties, there are more than 15,000 nuclear warheads and bombs in existence – many more, in theory, than would be required to kill every human on Earth. Even a small nuclear war has the potential to cause widespread devastation. In 2011, a study by NASA scientists concluded that a limited atomic war between India and Pakistan involving just 100 Hiroshima-sized detonations would throw enough dust into the air to cause temperatures to drop more than 1.2C globally for a decade.
Probability: high. Nine states have nuclear weapons, and more want to join the club. The nuclear wannabes are not paragons of democracy.
Result: it is unlikely that even a global nuclear war between Russia and NATO would wipe us all out, but it would kill billions and wreck the world economy for a century. A regional war, we now know, could have effects far beyond the borders of the conflict.
CERN)/MCT
CERN)/MCTThis is one of the huge particle detectors in the Large Hadron Collider, a 17 mile-long tunnel under the French-Swiss border. Scientists are searching for evidence of what happened right after- and perhaps before- the Big Bang.
5. PARTICLE ACCELERATOR DISASTER
Before the Large Hadron Collider (LHC), the massive machine at CERN in Switzerland that detected the Higgs boson a couple of years ago, was switched on, there was a legal challenge from a German scientist called Otto Rossler, who claimed the atom-smasher could theoretically create a small black hole by mistake – which would then go on to eat the Earth.
The claim was absurd: the collisions in the LHC are far less energetic than those caused naturally by cosmic rays hitting the planet. But it is possible that, one day, a souped-up version of the LHC could create something that destroys the Earth – or even the universe – at the speed of light.
Probability: very low indeed.
Result: potentially devastating, but don’t bother cancelling the house insurance just yet.
AP Photo/Oculus Rift/Fox
AP Photo/Oculus Rift/FoxThis photo shows a scene fromX-Men: Days of Future Past virtual reality experience. Oxford University philosopher Nick Bostrom has speculated that our universe may be one of countless "simulations" running in some alien computer, much like a computer game.
6. ‘GOD’ REACHES FOR THE OFF-SWITCH
Many scientists have pointed out that there is something fishy about our universe. The physical constants – the numbers governing the fundamental forces and masses of nature – seem fine-tuned to allow life of some form to exist. The great physicist Sir Fred Hoyle once wondered if the universe might be a “put-up job”.
More recently, the Oxford University philosopher Nick Bostrom has speculated that our universe may be one of countless “simulations” running in some alien computer, much like a computer game. If so, we have to hope that the beings behind our fake universe are benign – and do not reach for the off-button should we start misbehaving.
Probability: according to Professor Bostrom’s calculations, if certain assumptions are made, there is a greater than 50% chance that our universe is not real. And the increasingly puzzling absence of any evidence of alien life may be indirect evidence that the universe is not what it seems.
Result: catastrophic, if the gamers turn against us. The only consolation is the knowledge that there is absolutely nothing we can do about it.
AP Photo/Charles Rex Arbogast
AP Photo/Charles Rex ArbogastFloodwaters from the Souris River surround homes near Minot State University in Minot, N.D. on June 27, 2011. Global warming is rapidly turning America the beautiful into America the stormy and dangerous, according to the National Climate Assessment report released Tuesday, May 6, 2014.
7. CLIMATE CATASTROPHE
Almost no serious scientists now doubt that human carbon emissions are having an effect on the planet’s climate. The latest report by the Intergovernmental Panel on Climate Change suggested that containing temperature rises to below 2C above the pre-industrial average is now unlikely, and that we face a future three or four degrees warmer than today.
This will not literally be the end of the world – but humanity will need all the resources at its disposal to cope with such a dramatic shift. Unfortunately, the effects of climate change will really start to kick in just at the point when the human population is expected to peak – at about nine billion by the middle of this century. Millions of people, mostly poor, face losing their homes to sea-level rises (by up to a metre or more by 2100) and shifting weather patterns may disrupt agriculture dramatically.
Probability: it is now almost certain that CO2 levels will keep rising to 600 parts per billion and beyond. It is equally certain that the climate will respond accordingly.
Result: catastrophic in some places, less so in others (including northern Europe, where temperature rises will be moderated by the Atlantic). The good news is that, unlike with most of the disasters here, we have a chance to do something about climate change now.

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Is a trip to the moon in the making?





Excerpt from bostonglobe.com

Decades after that first small step, space thinkers are finally getting serious about our nearest neighbor By Kevin Hartnett

This week, the European Space Agency made headlines with the first successful landing of a spacecraft on a comet, 317 million miles from Earth. It was an upbeat moment after two American crashes: the unmanned private rocket that exploded on its way to resupply the International Space Station, and the Virgin Galactic spaceplane that crashed in the Mojave Desert, killing a pilot and raising questions about whether individual businesses are up to the task of operating in space.  During this same period, there was one other piece of space news, one far less widely reported in the United States: On Nov. 1, China successfully returned a moon probe to Earth. That mission follows China’s landing of the Yutu moon rover late last year, and its announcement that it will conduct a sample-return mission to the moon in 2017.  With NASA and the Europeans focused on robot exploration of distant targets, a moon landing might not seem like a big deal: We’ve been there, and other countries are just catching up. But in recent years, interest in the moon has begun to percolate again, both in the United States and abroad—and it’s catalyzing a surprisingly diverse set of plans for how our nearby satellite will contribute to our space future.  China, India, and Japan have all completed lunar missions in the last decade, and have more in mind. Both China and Japan want to build unmanned bases in the early part of the next decade as a prelude to returning a human to the moon. In the United States, meanwhile, entrepreneurs are hatching plans for lunar commerce; one company even promises to ferry freight for paying customers to the moon as early as next year. Scientists are hatching more far-out ideas to mine hydrogen from the poles and build colonies deep in sky-lit lunar caves.  This rush of activity has been spurred in part by the Google Lunar X Prize, a $20 million award, expiring in 2015, for the first private team to land a working rover on the moon and prove it by sending back video. It is also driven by a certain understanding: If we really want to launch expeditions deeper into space, our first goal should be to travel safely to the moon—and maybe even figure out how to live there.
Entrepreneurial visions of opening the moon to commerce can seem fanciful, especially in light of the Virgin Galactic and Orbital Sciences crashes, which remind us how far we are from having a truly functional space economy. They also face an uncertain legal environment—in a sense, space belongs to everyone and to no one—whose boundaries will be tested as soon as missions start to succeed. Still, as these plans take shape, they’re a reminder that leaping blindly is sometimes a necessary step in opening any new frontier.
“All I can say is if lunar commerce is foolish,” said Columbia University astrophysicist Arlin Crotts in an e-mail, “there are a lot of industrious and dedicated fools out there!”

At its height, the Apollo program accounted for more than 4 percent of the federal budget. Today, with a mothballed shuttle and a downscaled space station, it can seem almost imaginary that humans actually walked on the moon and came back—and that we did it in the age of adding machines and rotary phones.

“In five years, we jumped into the middle of the 21st century,” says Roger Handberg, a political scientist who studies space policy at the University of Central Florida, speaking of the Apollo program. “No one thought that 40 years later we’d be in a situation where the International Space Station is the height of our ambition.”

An image of Earth and the moon created from photos by Mariner 10, launched in 1973.
NASA/JPL/Northwestern University
An image of Earth and the moon created from photos by Mariner 10, launched in 1973.
Without a clear goal and a geopolitical rivalry to drive it, the space program had to compete with a lot of other national priorities. The dramatic moon shot became an outlier in the longer, slower story of building scientific achievements.

Now, as those achievements accumulate, the moon is coming back into the picture. For a variety of reasons, it’s pretty much guaranteed to play a central role in any meaningful excursions we take into space. It’s the nearest planetary body to our own—238,900 miles away, which the Apollo voyages covered in three days. It has low gravity, which makes it relatively easy to get onto and off of the lunar surface, and it has no atmosphere, which allows telescopes a clearer view into deep space.
The moon itself also still holds some scientific mysteries. A 2007 report on the future of lunar exploration from the National Academies called the moon a place of “profound scientific value,” pointing out that it’s a unique place to study how planets formed, including ours. The surface of the moon is incredibly stable—no tectonic plates, no active volcanoes, no wind, no rain—which means that the loose rock, or regolith, on the moon’s surface looks the way the surface of the earth might have looked billions of years ago.

NASA still launches regular orbital missions to the moon, but its focus is on more distant points. (In a 2010 speech, President Obama brushed off the moon, saying, “We’ve been there before.”) For emerging space powers, though, the moon is still the trophy destination that it was for the United States and the Soviet Union in the 1960s. In 2008 an Indian probe relayed the best evidence yet that there’s water on the moon, locked in ice deep in craters at the lunar poles. China landed a rover on the surface of the moon in December 2013, though it soon malfunctioned. Despite that setback, China plans a sample-return mission in 2017, which would be the first since a Soviet capsule brought back 6 ounces of lunar soil in 1976.

The moon has also drawn the attention of space-minded entrepreneurs. One of the most obvious opportunities is to deliver scientific instruments for government agencies and universities. This is an attractive, ready clientele in theory, explains Paul Spudis, a scientist at the Lunar and Planetary Institute in Houston, though there’s a hitch: “The basic problem with that as a market,” he says, “is scientists never have money of their own.”

One company aspiring to the delivery role is Astrobotic, a startup of young Carnegie Mellon engineers based in Pittsburgh, which is currently positioning itself to be “FedEx to the moon,” says John Thornton, the company’s CEO. Astrobotic has signed a contract with SpaceX, the commercial space firm founded by Elon Musk, to use a Falcon 9 for an inaugural delivery trip in 2015, just in time to claim the Google Lunar X Prize. Thornton says most of the technology is in place for the mission, and that the biggest remaining hurdle is figuring out how to engineer a soft, automated moon landing.

Astrobotic is charging $1.2 million per kilogram—you can, in fact, place an order on its website—and Thornton says the company has five customers so far. They include the entities you might expect, like NASA, but also less obvious ones, like a company that wants to deliver human ashes for permanent internment and a Japanese soft drink manufacturer that wants to place its signature beverage, Pocari Sweat, on the moon as a publicity stunt. Astrobotic is joined in this small sci-fi economy by Moon Express out of Mountain View, Calif., another company competing for the Google Lunar X Prize.
Plans like these are the low-hanging fruit of the lunar economy, the easiest ideas to imagine and execute. Longer-scale thinkers are envisioning ways that the moon will play a larger role in human affairs—and that, says Crotts, is where “serious resource exploitation” comes in.
If this triggers fears of a mined-out moon, be reassured: “Apollo went there and found nothing we wanted. Had we found anything we really wanted, we would have gone back and there would have been a new gold rush,” says Roger Launius, the former chief historian of NASA and now a curator at the National Air and Space Museum.

There is one possible exception: helium-3, an isotope used in nuclear fusion research. It is rare on Earth but thought to be abundant on the surface of the moon, which could make the moon an important energy source if we ever figure out how to harness fusion energy. More immediately intriguing is the billion tons of water ice the scientific community increasingly believes is stored at the poles. If it’s there, that opens the possibility of sustained lunar settlement—the water could be consumed as a liquid, or split into oxygen for breathing and hydrogen for fuel.

The presence of water could also open a potentially ripe market providing services to the multibillion dollar geosynchronous satellite industry. “We lose billions of dollars a year of geosynchronous satellites because they drift out of orbit,” says Crotts. In a new book, “The New Moon: Water, Exploration, and Future Habitation,” he outlines plans for what he calls a “cislunar tug”: a space tugboat of sorts that would commute between the moon and orbiting satellites, resupplying them with propellant, derived from the hydrogen in water, and nudging them back into the correct orbital position.

In the long term, the truly irreplaceable value of the moon may lie elsewhere, as a staging area for expeditions deeper into space. The most expensive and dangerous part of space travel is lifting cargo out of and back into the Earth’s atmosphere, and some people imagine cutting out those steps by establishing a permanent base on the moon. In this scenario, we’d build lunar colonies deep in natural caves in order to escape the micrometeorites and toxic doses of solar radiation that bombard the moon, all the while preparing for trips to more distant points.
gical hurdles is long, and there’s also a legal one, at least where commerce is concerned. The moon falls under the purview of the Outer Space Treaty, which the United States signed in 1967, and which prohibits countries from claiming any territory on the moon—or anywhere else in space—as their own.
“It is totally unclear whether a private sector entity can extract resources from the moon and gain title or property rights to it,” says Joanne Gabrynowicz, an expert on space law and currently a visiting professor at Beijing Institute of Technology School of Law. She adds that a later document, the 1979 Moon Treaty, which the United States has not signed, anticipates mining on the moon, but leaves open the question of how property rights would be determined.

There are lots of reasons the moon may never realize its potential to mint the world’s first trillionaires, as some space enthusiasts have predicted. But to the most dedicated space entrepreneurs, the economic and legal arguments reflect short-sighted thinking. They point out that when European explorers set sail in the 15th and 16th centuries, they assumed they’d find a fortune in gold waiting for them on the other side of the Atlantic. The real prizes ended up being very different—and slow to materialize.
“When we settled the New World, we didn’t bring a whole lot back to Europe [at first],” Thornton says. “You have to create infrastructure to enable that kind of transfer of goods.” He believes that in the case of the moon, we’ll figure out how to do that eventually.
Roger Handberg is as clear-eyed as anyone about the reasons why the moon may never become more than an object of wonder, but he also understands why we can’t turn away from it completely. That challenge, in the end, may finally be what lures us back.

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Rosetta Mission: European Space Agency Scientists Worry Philae Probe Is Running Out of Battery Power


Philae lander harpooned into comet

Excerpt from online.wsj.com

By Gautam Naik & Robert Wall

Situation Could Mean Early End for Important Experiments on Comet 


Scientists at the European Space Agency fear that the Philae probe now sitting on a comet’s surface may be on the verge of running out of battery power, a scenario that could bring key scientific experiments to a premature end.

The researchers will only know whether the primary batteries have drained or not late Friday, when they try to re-establish a radio link to the probe via Rosetta, a spacecraft in orbit around the comet. The probe and Rosetta can typically communicate twice a day because at other times the orbiter is below the horizon and can’t establish a direct signal.

Scientists are hoping to get contact around 10 p.m. German time, said Stephan Ulamec, who oversees operation for the lander. But if Philae fails to send a signal, he added, it would mean the battery had run out of juice.

The plan was for Philae to do scientific experiments for an initial 2 ½ days on primary battery power and then switch to solar panels that would keep it ticking for another three months. But because of an awkward landing near the face of cliff, the probe’s solar panels are being exposed to far less sunlight than was expected.

Despite the hitch, Philae has already done a significant amount of science on its new home. Its 10 instruments have so far garnered between 80%-90% of the data they were designed to collect, according to Dr. Ulamec.

It has beamed back detailed photographs of the comet’s rough terrain, analyzed the gases, and taken the comet’s temperature. It is now using radio waves to probe the comet’s nucleus and searching for organic molecules on the hostile surface.

Anticipating a possible loss of battery power, ESA scientists activated a drill during their last contact with the lander. The machine is designed to dig up the comet’s subsurface material and rotate it through an onboard oven to investigate its components. 

There may still be a way to extend Philae’s working life. During every 12-hour rotation of the comet, one of the lander’s solar panels is now exposed to an hour and 20 minutes of sunlight, while two other panels get the sun for less than 30 minutes each. 

Provided the signal to Philae can be re-established, scientists said they could rotate the lander slightly so that one of its larger solar panels can catch more sunlight. Another option is to eject the probe from its current location in the hope it lands in a spot where there is more sun.

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The Astonishing Sumerian Kings List ~ Did Sumerian Kings Rule for Thousands of Years? By Greg Giles


https://i0.wp.com/sumerianshakespeare.com/media/eff4fb62c807457effff8059ffffe417.jpg?resize=640%2C340
All four sides of the Sumerian kings list artifact

The following work is a translation provided by Oxford University (England), of a prism now in the Weld-Blundell collection of the Ashmolean Museum in Oxford, England. Known more popularly as the Sumerian kings list, it is a list compiled from fifteen or more different texts, tracing the rulers of certain Sumerian cities in succession. The original form of the list is believed to go back to approximately 2,000 BC.  


What is remarkable about this list is the lengths of reigns of a number of kings, some listed as long as 43,200 years. I find several possibilities for the long reigns inscribed on this artifact.  

1. This artifact is a hoax. I do not see this as likely however, as this artifact appears to be taken seriously by credible sources, namely Oxford University.  

2. The scribes and artisans who created the list erred. I do not see this as a very likely explanation either, as even the most mathematically challenged scribe would have noticed the hugely obvious oversights.  

3. The lengths of reigns was propaganda, conning the masses into seeing their kings as more god-like. This scenario is at least plausible, as history books state that as recently as the 20th century, the Japanese people believed their emperor Hirohito was a god, only to be shocked to learn the truth as he made public appearances after Japan's defeat at the end of World War 2. 

4. A handful of modern day scholars believe the years listed are multiplied equations, with kings receiving exaggerated lengths of reigns dependent upon their achievements while ruler. I see this as possible, though I am not convinced. Why choose such an odd way to honor a past king? Sumerians have preserved in tablet and other forms such accurate record keeping on so many varied subjects. Would they really choose to distort their records, records they carefully preserved for future generations, to honor past kings? There is also a lack of solid evidence to support this theory. 

5. Humans lived far longer life spans in our past. I see this theory as certainly possible.  

6. Ancient Sumerian kings were of extraterrestrial origin. 

What I find most intriguing is that possibilities number 5 & 6 appear the most likely explanations to the Sumerian king list.

Greg Giles     

 

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The Sumerian king list: Translation provided by Oxford University etcsl.orinst.ox.ac.uk

(In the following translation, mss. are referred to by the sigla used by Vincente 1995; from those listed there, mss. Fi, Go, P6, and WB 62 were not used; if not specified by a note, numerical data come from ms. WB.)
1-39After the kingship descended from heaven, the kingship was in Eridug. In Eridug, Alulim became king; he ruled for 28800 years. Alaljar ruled for 36000 years. 2 kings; they ruled for 64800 years. Then Eridug fell and the kingship was taken to Bad-tibira. In Bad-tibira, En-men-lu-ana ruled for 43200 years. En-men-gal-ana ruled for 28800 years. Dumuzid, the shepherd, ruled for 36000 years. 3 kings; they ruled for 108000 years. Then Bad-tibira fell (?) and the kingship was taken to Larag. In Larag, En-sipad-zid-ana ruled for 28800 years. 1 king; he ruled for 28800 years. Then Laragfell (?) and the kingship was taken to Zimbir. In Zimbir, En-men-dur-ana became king; he ruled for 21000 years. 1 king; he ruled for 21000 years. Then Zimbir fell (?) and the kingship was taken to Curuppag. In Curuppag, Ubara-Tutu became king; he ruled for 18600 years. 1 king; he ruled for 18600 years. In 5 cities 8 kings; they ruled for 241200 years. Then the flood swept over.
40-94After the flood had swept over, and the kingship had descended from heaven, the kingship was in Kic. In Kic, Jucur became king; he ruled for 1200 years. Kullassina-bel ruled for 960 (ms. P2+L2 has instead: 900) years. Nanjiclicma ruled for (ms. P2+L2 has:) 670 (?) years. En-tarah-ana ruled for (ms. P2+L2 has:) 420 years ......, 3 months, and 3 1/2 days. Babum ...... ruled for (ms. P2+L2 has:) 300 years. Puannumruled for 840 (ms. P2+L2 has instead: 240) years. Kalibum ruled for 960 (ms. P2+L2 has instead:900) years. Kalumum ruled for 840 (mss. P3+BT14, Su1 have instead:900) years. Zuqaqip ruled for 900 (ms. Su1 has instead: 600)years. (In mss. P2+L2, P3+BT14, P5, the 10th and 11th rulers of the dynasty precede the 8th and 9th.) Atab (mss. P2+L2, P3+BT14, P5 have instead: Aba) ruled for 600 years. Macda, the son of Atab, ruled for 840 (ms. Su1 has instead:720) years. Arwium, the son of Macda, ruled for 720 years. Etana, the shepherd, who ascended to heaven and consolidated all the foreign countries, became king; he ruled for 1500 (ms. P2+L2 has instead: 635) years. Balih, the son of Etana, ruled for 400 (mss. P2+L2, Su1 have instead: 410) years. En-me-nuna ruled for 660 (ms. P2+L2 has instead:621) years. Melem-Kic, the son of En-me-nuna, ruled for 900 years. (ms. P3+BT14 adds:) 1560 are the years of the dynasty of En-me-nuna . Barsal-nuna, the son of En-me-nuna,(mss. P5, P3+BT14 have instead: Barsal-nuna) ruled for 1200 years. Zamug, the son of Barsal-nuna, ruled for 140 years. Tizqar, the son of Zamug, ruled for 305 years. (ms. P3+BT14 adds:) 1620 + X ....... Ilku ruled for 900 years. Iltasadum ruled for 1200 years. En-men-barage-si, who made the land of Elamsubmit, became king; he ruled for 900 years. Aga, the son of En-men-barage-si, ruled for 625 years. (ms. P3+BT14 adds:) 1525 are the years of the dynasty of En-men-barage-si. 23 kings; they ruled for 24510 years, 3 months, and 3 1/2 days. Then Kic was defeated and the kingship was taken to E-ana.
95-133In E-ana, Mec-ki-aj-gacer, the son of Utu, became lord and king; he ruled for 324 (ms. P2+L2 has instead: 325)years. Mec-ki-aj-gacer entered the sea and disappeared. Enmerkar, the son of Mec-ki-aj-gacer, the king of Unug, who built Unug (mss. L1+N1, P2+L2 have instead: under whom Unug was built), became king; he ruled for 420 (ms. TL has instead: 900 + X) years. (ms. P3+BT14 adds:) 745 are the years of the dynasty of Mec-ki-aj-gacer. (ms TL adds instead: ......; he ruled for 5 + X years.) Lugalbanda, the shepherd, ruled for 1200 years. Dumuzid, the fisherman, whose city was Kuara, ruled for 100 (ms. TL has instead: 110) years. (ms. P3+BT14 adds:) He captured En-me-barage-si single-handed. Gilgamec, whose father was a phantom (?), the lord of Kulaba, ruled for 126 years. Ur-Nungal, the son of Gilgamec, ruled for 30 years. Udul-kalama, the son of Ur-Nungal (ms. Su1 has instead: Ur-lugal), ruled for 15 years. La-ba'cum ruled for 9 years. En-nun-tarah-ana ruled for 8 years. Mec-he, the smith, ruled for 36 years. Melem-ana (ms. Su2 has instead:Til-kug (?) ......) ruled for 6 (ms. Su2 has instead: 900)years. Lugal-kitun (?) ruled for 36 (ms. Su2 has instead: 420)years. 12 kings; they ruled for 2310 (ms. Su2 has instead: 3588) years. Then Unug was defeated and the kingship was taken to Urim.
134-147In Urim, Mec-Ane-pada became king; he ruled for 80 years. Mec-ki-aj-Nanna(ms. P2+L2 has instead: Mec-ki-aj-nuna), the son of Mec-Ane-pada, became king; he ruled for 36 (ms. P2+L2 has instead: 30)years. Elulu ruled for (mss. L1+N1, P2+L2, P3+BT14 have:) 25 years. Baluluruled for (mss. L1+N1, P2+L2, P3+BT14 have:) 36 years. (mss. L1+N1, P2+L2 have:) 4 kings; they ruled for (mss. L1+N1, P2+L2, P3+BT14 have:) 171 years. Then Urim was defeated and the kingship was taken to Awan.
148-159In Awan, ...... became king; he ruled for ...... years. ...... ruled for ...... years. ...... ruled for 36 years. 3 kings; they ruled for 356 years. Then Awan was defeated and the kingship was taken to Kic.
160-178In Kic, Susuda, the fuller, became king; he ruled for 201 + X years. Dadasig ruled for (ms. vD has:) 81 years. Mamagal, the boatman, ruled for 360 (ms. L1+N1 has instead: 420) years. Kalbum, the son of Mamagal (ms. WB has instead:Magalgal), ruled for 195 (ms. L1+N1 has instead: 132)years. Tuge (?) ruled for 360 years. Men-nuna, (ms. L1+N1 adds:) the son of Tuge (?), ruled for 180 years. (in mss. L1+N1, TL, the 7th and 8th rulers of the dynasty are in reverse order) ...... ruled for 290 years. Lugalju ruled for 360 (ms. L1+N1 has instead:420) years. 8 kings; they ruled for 3195 (ms. L1+N1 has instead: 3792) years. Then Kic was defeated and the kingship was taken to Hamazi.
179-185In Hamazi, Hadanic became king; he ruled for 360 years. 1 king; he ruled for 360 years. Then Hamazi was defeated and the kingship was taken (ms. P3+BT14 has instead: was returned a second time) to Unug.
(In mss. IB, L1+N1, TL, the 2nd dynasty of Unug of ll. 185-191 is preceded by the 2nd dynasty of Urim of ll. 192-203.)
186-192In Unug, En-cakanca-ana became king; he ruled for 60 years. Lugal-ure(ms. P3+BT14 has instead: Lugal-kinice-dudu (?)) ruled for 120 years. Argandea ruled for 7 years. (ms. L1+N1 has:) 3 kings; they ruled for (ms. L1+N1 has:) 187 years. Then Unug was defeated (ms. TL has instead:destroyed) and the kingship was taken to Urim.
193-204In Urim, Nani became king; he ruled for (ms. vD has:) 120 + X (ms. IB has instead: 54 + X) years. Mec-ki-aj-Nanna, the son of Nani, ruled for (ms. vD has:) 48years. ......, the son (?) of ......, ruled for (ms. IB has:) 2 years. (ms. IB has:) 3 kings; they ruled for (ms. IB has:) 582 (ms. TL has instead:578) years. (ms. vD has instead: 2 kings; they ruled for 120 + X years.) Then Urimwas defeated (ms. TL has instead: destroyed) and the kingship was taken to Adab.
205-210In Adab, Lugal-Ane-mundu became king; he ruled for (mss. L1+N1, TL have:) 90 years. (mss. L1+N1, TL have:) 1 king; he ruled for (mss. L1+N1, TL have:) 90 years. Then Adab was defeated (ms. TL has instead:destroyed) and the kingship was taken to Mari.
211-223In Mari, Anbu (?) became king; he ruled for 30 (ms. TL has instead:90) years. Anba (?), the son of Anbu (?), ruled for 17 (ms. TL has instead: 7) years. Bazi, the leatherworker, ruled for 30 years. Zizi, the fuller, ruled for 20 years. Limer, the gudu priest, ruled for 30 years. Carrum-iter ruled for 9 (ms. TL has instead: 7) years. 6 kings; they ruled for 136 (ms. TL has instead:184) years. Then Mari was defeated (ms. TL has instead:destroyed) and the kingship was taken to Kic.
224-231In Kic, Kug-Bau, the woman tavern-keeper, who made firm the foundations of Kic, became king; she ruled for 100 years. 1 king; she ruled for 100 years. Then Kic was defeated (ms. TL has instead:destroyed) and the kingship was taken to Akcak.
232-243In Akcak, Unzi became king; he ruled for 30 years. Undalulu ruled for 6(mss. L1+N1, S have instead: 12) years. Urur ruled for (ms. IB has instead: was king (?) for) 6 years. Puzur-Nirah ruled for (mss. IB, L1+N1, S, Su1 have:) 20 years. Icu-Il ruled for (mss. IB, L1+N1, S, Su1 have:) 24 years. Cu-Suen, the son of Icu-Il, ruled for (mss. IB, L1+N1, S, TL have:) 7 (ms. Su1 has instead: 24) years. (mss. S, Su1, TL have:) 6 kings; they ruled for (mss. L1+N1, S, TL have:) 99(ms. Su1 has instead: 116) years (ms. IB has instead: 5 kings; they ruled for (ms. IB has:) 87 years). Then Akcak was defeated (ms. S has instead: Then the reign of Akcak was abolished) and the kingship was taken to Kic.
(mss. IB, S, Su1, Su3+Su4 list the 3rd and 4th dynasty of Kic of ll. 224-231 and ll. 244-258, respectively, as one dynasty)
244-258In Kic, Puzur-Suen, the son of Kug-Bau, became king; he ruled for 25 years. Ur-Zababa, the son of Puzur-Suen, ruled for 400 (mss. P3+BT14, S have instead:6) (ms. IB has instead: 4 + X) years. (ms. P3+BT14 adds:) 131 are the years of the dynasty of Kug-Bau. Zimudar (ms. TL has instead: Ziju-iake) ruled for 30 (ms. IB has instead: 30 + X)years. Uß³i-watar, the son of Zimudar (ms. TL has instead: Ziju-iake), ruled for 7 (ms. S has instead: 6) years. Ectar-muti ruled for 11 (ms. Su1 has instead: 17 (?)) years. Icme-Camacruled for 11 years. (ms. Su1 adds:) Cu-ilicu ruled for 15 years. Nanniya, the jeweller, (ms. Su1 has instead: Zimudar) (ms. IB has instead: ......) ruled for 7 (ms. S has instead: 3) years. 7 kings; they ruled for 491 (ms. Su1 has instead: 485) years (ms. S has instead: 8 kings; they ruled for (ms. S has:) 586 years). Then Kic was defeated (ms. S has instead: Then the reign of Kic was abolished) and the kingship was taken (ms. P3+BT14 has instead: was returned a third time) to Unug.
(ms. IB omits the 3rd dynasty of Unug of ll. 258-263)
259-265In Unug, Lugal-zage-si became king; he ruled for 25 (ms. P3+BT14 has instead: 34) years. 1 king; he ruled for 25 (ms. P3+BT14 has instead: 34)years. Then Unug was defeated(ms. S has instead: Then the reign of Unug was abolished) and the kingship was taken to Agade.
266-296In Agade, Sargon, whose father was a gardener, the cupbearer of Ur-Zababa, became king, the king of Agade, who built Agade (ms. L1+N1 has instead:under whom Agade was built); he ruled for 56 (ms. L1+N1 has instead:55) (ms. TL has instead: 54) years. Rimuc, the son of Sargon, ruled for 9 (ms. IB has instead:7) (ms. L1+N1 has instead: 15) years. Man-icticcu, the older brother of Rimuc, the son of Sargon, ruled for 15 (ms. L1+N1 has instead:7) years. Naram-Suen, the son of Man-icticcu, ruled for (mss. L1+N1, P3+BT14 have:) 56 years. Car-kali-carri, the son of Naram-Suen, ruled for (ms. L1+N1, Su+Su4 have:) 25 (ms. P3+BT14 has instead:24) years. (ms. P3+BT14 adds:) 157 are the years of the dynasty of Sargon. Then who was king? Who was the king? (ms. Su3+Su4 has instead: who was king? Who indeed was king?) Irgigi was king, Imi was king, Nanûm was king (in mss. L1+N1, Su3+Su4, Imi and Nanûm are in reverse order) , Ilulu was king, and the (mss. P3+BT14, S have:) 4 of them ruled for only (mss. P3+BT14, S have:) 3years. Dudu ruled for 21 years. Cu-Durul, the son of Dudu, ruled for 15 (ms. IB has instead: 18) years. 11 kings; they ruled for 181 years (ms. S has instead: 12 kings; they ruled for (ms. S has:) 197 years) (mss. Su1, Su3+Su4, which omit Dudu and Cu-Durul, have instead: 9 kings; they ruled for (ms. Su1 has:) 161 (ms. Su3+Su4 has instead: 177) years. Then Agade was defeated (ms. S has instead: Then the reign of Agade was abolished) and the kingship was taken to Unug.
297-307In Unug, Ur-nijin became king; he ruled for 7 (mss. IB, S have instead: 3) (ms. Su1 has instead:15) (ms. Su3+Su4 has instead: 30)years. Ur-gigir, the son of Ur-nijin, ruled for 6 (ms. IB has instead: 7) (ms. Su1 has instead: 15) (ms. Su3+Su4 has instead: 7) years. Kuda ruled for 6 years. Puzur-ili ruled for 5 (ms. IB has instead: 20) years. Ur-Utu ruled for 6(ms. Su3+Su4 has instead: Ur-Utu), the son of Ur-gigir, ruled for 25 (ms. Su1 has instead: Lugal-melem, the son of Ur-gigir, ruled for 7) years. 5 kings; they ruled for 30 (ms. IB has instead:43) (mss. PÝ+Ha, S have instead:26) years (ms. Su3+Su4, which omits Kuda and Puzur-ili, has instead: 3 kings; they ruled for (ms. Su3+Su4 has:) 47 years). Unug was defeated (ms. S has instead: Then the reign of Unug was abolished) and the kingship was taken to the army (ms. Su3+Su4 has instead:land) of Gutium.
308-334In the army (ms. Su3+Su4 has instead:land) of Gutium, at first no king was famous; they were their own kings and ruled thus for 3 years(ms. L1+N1 has instead: they had no king; they ruled themselves for 5 years). Then Inkicuc (ms. Su3+Su4 has instead:......) ruled for 6 (ms. L1+Ni1 has instead: 7) years. Zarlagabruled for 6 years. Culme (ms. L1+N1 has instead: Yarlagac) ruled for 6 years. Silulumec (ms. Mi has instead:Silulu) ruled for 6(ms. G has instead: 7) years. Inimabakec ruled for 5 (ms. Mi has instead: Duga ruled for 6) years. Igecauc ruled for 6 (ms. Mi has instead: Ilu-an (?) ruled for 3) years. Yarlagab ruled for 15 (ms. Mi has instead: 5) years. Ibate ruled for 3 years. Yarla (ms. L1+N1 has instead:Yarlangab (?)) ruled for 3 years. Kurum (ms. L1+N1 has instead: ......) ruled for 1 (ms. Mi has instead: 3) years. Apil-kin ruled for 3 years. La-erabum (?) ruled for 2 years. Irarum ruled for 2 years. Ibranum ruled for 1 year. Hablumruled for 2 years. Puzur-Suen, the son of Hablum, ruled for 7 years. Yarlaganda ruled for 7 years. ...... ruled for 7 years. Tiriga (?) ruled for 40 days. 21 kings; they ruled for (ms. L1+N1 has:) 124 years and 40 days (ms. Su3+Su4 has instead: 25 years). Then the army of Gutium was defeated (ms. TL has instead: destroyed) and the kingship was taken to Unug.
335-340In Unug, Utu-hejal became king; he ruled for 427 years, ...... days (ms. IB has instead: 26 years, 2 + X months, and 15 days) (ms. J has instead: 7 years, 6 months, and 15 days) (ms. TL has instead: 7 years, 6 months, and 5 days). 1 king; he ruled for 427 years, ...... days (ms. J has instead: 7 years, 6 months, and 15 days) (ms. TL has instead: 7 years, 6 months, and 5 days). Then Unug was defeated and the kingship was taken to Urim.
341-354In Urim, Ur-Namma became king; he ruled for 18 years. Culgi, the son of Ur-Namma, ruled for 46 (mss. Su3+Su4, TL have instead: 48) (ms. P5 has instead:58) years. Amar-Suena, the son of Culgi, ruled for 9(ms. Su3+Su4 has instead: 25) years. Cu-Suen, the son of Amar-Suena, ruled for 9 (ms. P5 has instead: 7) (ms. Su1 has instead: 20 + X) (ms. Su3+Su4 has instead: 16) years. Ibbi-Suen, the son of Cu-Suen, ruled for 24 (mss. P5, Su1 have instead:25) (ms. Su3+Su4 has instead: 15)(ms. TL has instead: 23 (?)) years. 4 kings; they ruled for 108 years (mss. J, P5, Su1, Su3+Su4 have instead: 5 kings; they ruled for (ms. P5 has:) 117 (ms. Su1 has instead: 120 + X) (ms. Su3+Su4 has instead: 123) years). Then Urim was defeated (ms. P5 has instead: Then the reign of Urim was abolished). (ms. Su3+Su4 adds:) The very foundation of Sumer was torn out (?). The kingship was taken to Isin.
355-377In Isin, Icbi-Erra became king; he ruled for 33(ms. P5 has instead: 32) years. Cu-ilicu, the son of Icbi-Erra, ruled for 20 (ms. P5 has instead: 10) (ms. Su1 has instead: 15) years. Iddin-Dagan, the son of Cu-ilicu, ruled for 21 (ms. Su1 has instead: 25) years. Icme-Dagan, the son of Iddin-Dagan, ruled for (mss. P2, P5 have:) 20 (ms. Mi has instead:18) years. Lipit-Ectar, the son of Icme-Dagan (ms. P2 has instead:Iddin-Dagan), ruled for (mss. L1+N1, P2, P5 have:) 11 years. Ur-Ninurta (mss. L1+N1, P2 add:) , the son of Ickur-- may he have years of abundance, a good reign, and a sweet life --ruled for (ms. P5 has:) 28 years. Bur-Suen, the son of Ur-Ninurta, ruled for 21 years. Lipit-Enlil, the son of Bur-Suen, ruled for 5 years. Erra-imitti ruled for 8 (mss. P5, TL have instead: 7)years. (ms. P5 adds:) ...... ruled for ...... 6 months. Enlil-bani ruled for 24 years. Zambiya ruled for 3 years. Iter-pica ruled for 4 years. Ur-dul-kugaruled for 4 years. Suen-magirruled for 11 years. (ms. P5 adds:) Damiq-ilicu, the son of Suen-magir, ruled for 23 years. 14 kings; they ruled for 203 years (ms. P5 has instead: 225 years and 6 months).
(Mss. P2+L2, L1+N1 and P4+Ha conclude with a summary of the post-diluvian dynasties; the translation of ll. 378-431 uses numerical data from each mss. but follows the wording of P2+L2 and L1+N1)
378-431A total of 39 kings ruled for 14409 + X years, 3 months and 3 1/2 days, 4 times in Kic. A total of 22 kings ruled for 2610 + X years, 6 months and 15 days, 5 times in Unug. A total of 12 kings ruled for 396 years, 3 times in Urim. A total of 3 kings ruled for 356 years, once in Awan. A total of 1 king ruled for 420 years, once in Hamazi.16 lines missing
A total of 12 (?) kings ruled for 197 (?) years, once in Agade. A total of 21 (ms. P4+Ha has instead: 23) kings ruled for 125 years and 40 days (ms. P4+Ha has instead: 99 years), once in the army of Gutium. A total of 11 (ms. P4+Ha has instead: 16) kings ruled for 159 (ms. P4+Ha has instead: 226)years, once in Isin. There are 11 cities, cities in which the kingship was exercised. A total of 134 (ms. P4+Ha has instead: 139) kings, who altogether ruled for 28876 + X (ms. P4+Ha has instead: 3443 + X) years. 21.







Revision history

03.ix.1999 : GZ : adapting translation
04.xii.1999 : JAB : proofreading
08.xii.1999 : GC : tagging
14.i.2000 : ER : proofreading SGML
14.i.2000 : ER : converting to HTML 4.0
7.ix.2001 : ER : header and footer reformatted; substantive content of file not changed

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THERE ARE NO BLACK HOLES, ONLY GREY HOLES, CLAIMS STEPHEN HAWKING




dailymail.co.uk

Earlier this year Professor Stephen Hawking shocked physicists by saying 'there are no black holes'.
In a paper published online, Professor Hawking instead argues there are 'grey holes'
'The absence of event horizons means that there are no black holes - in the sense of regimes from which light can't escape to infinity,' he says in the paper, called Information Preservation and Weather Forecasting For Black Holes.
He says that the idea of an event horizon, from which light cannot escape, is flawed.
He suggests that instead light rays attempting to rush away from the black hole’s core will be held as though stuck on a treadmill and that they can slowly shrink by spewing out radiation.  
One of the reasons black holes are so bizarre is that they pit two fundamental theories of the universe against each other.
Namely, Einstein’s theory of gravity predicts the formation of black holes. But a fundamental law of quantum theory states that no information from the universe can ever disappear.
Efforts to combine these two theories proved problematic, and has become known as the black hole information paradox - how can matter permanently disappear in a black hole as predicted?
Professor Mersini-Houghton’s new theory does manage to mathematically combine the two fundamental theories, but with unwanted effects for people expecting black holes to exist.
‘Physicists have been trying to merge these two theories - Einstein’s theory of gravity and quantum mechanics - for decades, but this scenario brings these two theories together, into harmony,’ said Professor Mersini-Houghton.
‘And that’s a big deal.’

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Black holes do NOT exist and the Big Bang Theory is wrong, claims scientist – and she has the maths to prove it




dailymail.co.uk

By Jonathan O’Callaghan

  • Scientist claims she has mathematical proof black holes cannot exist
  • She said it is impossible for stars to collapse and form a singularity
  • Professor Laura Mersini-Houghton said she is still in 'shock' from the find
  • Previously, scientists thought stars much larger than the sun collapsed under their own gravity and formed black holes when they died
  • During this process they release a type of radiation called Hawking radiation
  • But new research claims the star would lose too much mass and wouldn't be able to form a black hole
  • If true, the theory that the universe began as a singularity, followed by the Big Bang, could also be wrong

  • When a huge star many times the mass of the sun comes to the end of its life it collapses in on itself and forms a singularity – creating a black hole where gravity is so strong that not even light itself can escape.
    At least, that’s what we thought.
    A scientist has sensationally said that it is impossible for black holes to exist – and she even has mathematical proof to back up her claims.
    If true, her research could force physicists to scrap their theories of how the universe began.
    A scientist from University of North Carolina states she has mathematical proof that black holes (illustrated) can't exist. She said it is impossible for stars to collapse and form a singularity. Previously, scientists thought stars  larger than the sun collapsed under their own gravity and formed black holes as they died

    A scientist from University of North Carolina states she has mathematical proof that black holes (illustrated) can’t exist. She said it is impossible for stars to collapse and form a singularity. Previously, scientists thought stars larger than the sun collapsed under their own gravity and formed black holes as they died
    The research was conducted by Professor Laura Mersini-Houghton from the University of North Carolina at Chapel Hill in the College of Arts and Scientists.

    She claims that as a star dies, it releases a type of radiation known as Hawking radiation – predicted by Professor Stephen Hawking.

    THE BLACK HOLE INFORMATION PARADOX

    One of the biggest unanswered questions about black holes is the so-called information paradox.
    Under current theories for black holes it is thought that nothing can escape from the event horizon around a black hole – not even light itself.
    Inside the black hole is thought to be a singularity where matter is crushed to an infinitesimally small point as predicted by Einstein’s theory of gravity.
    However, a fundamental law of quantum theory states that no information from the universe can ever disappear.
    This creates a paradox; how can a black hole make matter and information ‘disappear’?
    Professor Mersini-Houghton’s new theory manages to explain why this might be so – namely because black holes as we know them cannot exist.
    However in this process, Professor Mersini-Houghton believes the star also sheds mass, so much so that it no longer has the density to become a black hole.
    Before the black hole can form, she said, the dying star swells and explodes.
    The singularity as predicted never forms, and neither does the event horizon – the boundary of the black hole where not even light can escape.
    ‘I’m still not over the shock,’ said Professor Mersini-Houghton.
    ‘We’ve been studying this problem for a more than 50 years and this solution gives us a lot to think about.’
    Experimental evidence may one day provide physical proof as to whether or not black holes exist in the universe.
    But for now, Mersini-Houghton says the mathematics are conclusive.
    What’s more, the research could apparently even call into question the veracity of the Big Bang theory.
    Most physicists think the universe originated from a singularity that began expanding with the Big Bang about 13.8 billion years ago.
    If it is impossible for singularities to exist, however, as partially predicted by Professor Mersini-Houghton, then that theory would also be brought into question.

    THIS is what a black hole looks like – simulation shows disc…
    During the collapse process stars release a type of radiation called Hawking radiation (shown). But Professor Mersini-Houghton claims this process means the star loses too much mass and can't form a black hole. And this also apparently means the Big Bang theory, that the universe began as a singularity, may not be correct
    During the collapse process stars release a type of radiation called Hawking radiation (shown). But Professor Mersini-Houghton claims this process means the star loses too much mass and can’t form a black hole. And this also apparently means the Big Bang theory, that the universe began as a singularity, may not be correct

    THERE ARE NO BLACK HOLES, ONLY GREY HOLES, CLAIMS HAWKING

    Earlier this year Professor Stephen Hawking shocked physicists by saying ‘there are no black holes’.
    In a paper published online, Professor Hawking instead argues there are ‘grey holes’
    ‘The absence of event horizons means that there are no black holes – in the sense of regimes from which light can’t escape to infinity,’ he says in the paper, called Information Preservation and Weather Forecasting For Black Holes.
    He says that the idea of an event horizon, from which light cannot escape, is flawed.
    He suggests that instead light rays attempting to rush away from the black hole’s core will be held as though stuck on a treadmill and that they can slowly shrink by spewing out radiation.
    One of the reasons black holes are so bizarre is that they pit two fundamental theories of the universe against each other.
    Namely, Einstein’s theory of gravity predicts the formation of black holes. But a fundamental law of quantum theory states that no information from the universe can ever disappear.
    Efforts to combine these two theories proved problematic, and has become known as the black hole information paradox – how can matter permanently disappear in a black hole as predicted?
    Professor Mersini-Houghton’s new theory does manage to mathematically combine the two fundamental theories, but with unwanted effects for people expecting black holes to exist.
    ‘Physicists have been trying to merge these two theories – Einstein’s theory of gravity and quantum mechanics – for decades, but this scenario brings these two theories together, into harmony,’ said Professor Mersini-Houghton.
    ‘And that’s a big deal.’

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The Unstoppable Awakening of Humanity

by Zen GardnerWe’re undergoing an amazing transformation. Absolutely diametrically opposed to the constant, gradual attempt by elitists to shut down humanity via eons of engineered subjugation, we’re being consciously and vibrationally liberated by the very nature of the Universe in spite of all their efforts.It’s not readily apparent to most, but it’s very clearly there.It’s subtle and yet obvious at the same time. Knowledge of this change or shift in conscio [...]

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The Enlightenment Test

Enlightenment. The moment we consciously connect to eternal truth. It’s when we see through the veil of this illusionary world, rising above ego, time, materialism, and our own emotions to see the bigger picture—that we are all one. It’s what all gurus, spiritualists, yogis, Buddhists, monks, meditators, shamans, artists, writers, and religious leaders strive for. It’s the state Neo reached at the end of The Matrix, the level Dorothy attained so she could surpa [...]

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Galactic Federation of Light Sheldan Nidle June-04-2013

Sheldan’s update for June, 04, 2013
http://www.paoweb.com/sn060413.htm

10 Chicchan, 13 Pax, 9 Eb

Selamat Jarin! We return with important things to discuss. The most important is about first contact. In

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Galactic Federation of Light High Council of Orion May-10-2013

High Council of Orion — Disclosure Karen Doonan
With Permission

Dear ones we are here with you as you digest our words and process them through your heart space, for

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Galactic Federation of Light Landing Party Part 4 May-05-2013

Galactic/Earth Alliance — Landing Party Remembers 4 Suzanne Lie
http://suzanneliephd.blogspot.com/2013/05/galacticearth-alliance-landing-party.html

The Landing Party Remembers — Part 4

Morning on Earth
CONTACT PERSON SPEAKS:
I have not been feeling like myself

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Galactic Federation of Light Yeshua May-08-2013

Yeshua: Move Into Your True Center~ As Channeled Through Fran Zepeda ~ May 8, 2013
http://franheal.wordpress.com/2013/05/08/yeshua-move-into-your-true-center-as-channeled-through-fran-zepeda-may-8-2013-2/

Yeshua:

Hello dear ones, I greet you today from a place very close

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