Despite the organization’s $1.24 billion annual budget for 2017, the physicists at CERN, the European Organization for Nuclear Research, are being forced to admit failure in their latest effort to explain why any of us are here.

Indeed, why there’s even a “here” here at all.

“The universe should not actually exist,” said Christian Smorra, a physicist at CERN’s Baryon–Antibaryon Symmetry Experiment (BASE) collaboration.

CERN, founded in 1954, features a circular tunnel some 17 miles around that houses a particle accelerator, which uses peak energy of 14 trillion electron volts to speed particles to nearly the speed of light and allow them to collide. It is underneath Switzerland near its border with France.

Smorra and other scientists are trying to resolve the mystery of why – given the assumption the universe is the result of the Big Bang – the resulting matter was not annihilated back into nothingness by the equal amount of resulting antimatter.

“All of our observations find a complete symmetry between matter and antimatter,” Smorra told Cosmos magazine. “An asymmetry must exist here somewhere, but we simply do not understand where the difference is.”

It is that elusive asymmetry CERN scientists have been seeking – some out-of-balance property that allows matter to continue existing.

That’s easier said than done. Unstable by nature, antimatter annihilates in a burst of pure energy when it comes in contact with matter in a reaction that is the most efficient known in physics. That property is why antimatter was selected as the fuel to power the Enterprise spaceship on “Star Trek.”

While Hollywood long ago “solved” the problem of capturing, storing and utilizing antimatter, it has not been so easy for scientists. To date, very precise measurements have been conducted on antimatter’s properties: mass, electric charge and most recently, magnetic moment, but with no difference being found when compared to regular matter. Last year’s CERN’s Antihydrogen Laser PHysics Apparatus (ALPHA) experiment proved equally disappointing when atoms of antihydrogen and hydrogen were examined with light for the first time, and no difference was observed. Still, the universe remains.

One property that has not been well understood, and the subject of CERN’s most recent work, is the magnetic moment of antiprotons. For the past 10 years, a CERN team has worked on a way to capture individual protons, store them and then measure their magnetic moment. As any container made of matter will cause antiprotons to self-annihilate on contact, a new technique was developed to trap individual protons in a double trap consisting of a magnetic and electrical field, thus creating an antimatter chamber that held antiprotons for 405 days. This allowed researchers to run their magnetic moment measurements, precise to nine significant digits – 350 times more precise than any previous measurement. One would have to measure the circumference of the Earth to within a few centimeters to have a similar accomplishment.

Yet despite the impressive technical advances that let scientists measure antimatter’s additional properties, the laws of physics still dictated the universe should not exist.

WND reported in 2008 concerns by some members of the public that the CERN experiments using the then-new Large Hadron Collider to smash atoms together to explore antimatter might set off a reaction that would obliterate Earth. Scientists even received death threats.

In June 2016, as a new experiment called Awake was getting underway at the CERN super collider, photographers captured ominous images of dark swirling clouds and lightning above the facility that did not appear to be associated with a natural meteorological event.

A report featuring the images asked, “What portal did CERN open now?”

“The cloud looks to be rotating in a circular motion and some have claimed to see a face in the lightning filled cloud. Last year we reported that there were clear images of demons in the pictures of CERN’s beams. Could this be an outer manifestation of one?” the report said.

It appears, however, that despite Big Bang assumptions, dark clouds and the ongoing search fo asymmetry between matter and antimatter, the universe remains stable, sustained by some force CERN has not yet considered.

The scientists are not giving up. The next planned experiment focuses on the gravity of antimatter. It’s already known that matter falls down as the result of the force gravity, but does that mean antimatter falls up? Since the universe still exists, the answer to that question is probably yes.

Astronomers strike gold, witness massive cosmic collision

Fox News

It was a faint signal, but it told of one of the most violent acts in the universe, and it would soon reveal secrets of the cosmos, including how gold was created.

Forbes estimated that the collision created an estimated $10 octillion in gold, which is $10 billion, billion, billion. 

What they witnessed in mid-August and revealed Monday was the long-ago collision of two neutron stars — a phenomenon California Institute of Technology's David H. Reitze called "the most spectacular fireworks in the universe."

The crash happened 130 million years ago, while dinosaurs still roamed on Earth, but the signal didn't arrive on Earth until Aug. 17 after traveling 130 million light-years. A light-year is 5.88 trillion miles. 

"We already knew that iron came from a stellar explosion, the calcium in your bones came from stars and now we know the gold in your wedding ring came from merging neutron stars," said University of California Santa Cruz's Ryan Foley.

Measurements of the light and other energy emanating from the crash have helped scientists explain how planet-killing gamma ray bursts are born, how fast the universe is expanding, and where heavy elements like platinum and gold come from.

"This is getting everything you wish for," said Syracuse University physics professor Duncan Brown, one of more than 4,000 scientists involved in the blitz of science that the crash kicked off. "This is our fantasy observation."

It started in a galaxy called NGC 4993, seen from Earth in the Hydra constellation. Two neutron stars, collapsed cores of stars so dense that a teaspoon of their matter would weigh 1 billion tons, danced ever faster and closer together until they collided, said Carnegie Institution astronomer Maria Drout.

The crash, called a kilonova, generated a fierce burst of gamma rays and a gravitational wave, a faint ripple in the fabric of space and time, first theorized by Albert Einstein.

"This is like a cosmic atom smasher at a scale far beyond humans would be capable of building," said Andy Howell, a staff scientist at the Las Cumbres Observatory. "We finally now know what happens when an unstoppable force meets an immovable object and it's a kilonova."

Signals were picked up within 1.7 seconds of each other, by NASA's Fermi telescope, which detects gamma rays, and gravity wave detectors in Louisiana and Washington state that are a part of the LIGO Laboratory , whose founders won a Nobel Prize earlier this month. A worldwide alert went out to focus telescopes on what became the most well-observed astronomical event in history.

Before August, the only other gravity waves detected by LIGO were generated by colliding black holes. But black holes let no light escape, so astronomers could see nothing.

This time there was plenty to see, measure and analyze: matter, light, and other radiation. The Hubble Space Telescope even got a snapshot of the afterglow.

Finding where the crash happened wasn't easy. Eventually scientists narrowed the location down to 100 galaxies, began a closer search of those, and found it in the ninth galaxy they looked at.

It is like "the classic challenge of finding a needle in the haystack with the added challenge that the needle is fading away and the haystack is moving," said Marcelle Soares-Santos, an astrophysicist at Brandeis University.

"The completeness of this picture from the beginning to the end is unprecedented," said Columbia University physics professor Szabolcs Marka. "There are many, many extraordinary discoveries within the discovery."

The colliding stars spewed bright blue, super-hot debris that was dense and unstable. Some of it coalesced into heavy elements, like gold, platinum and uranium. Scientists had suspected neutron star collisions had enough power to create heavier elements, but weren't certain until they witnessed it.

"We see the gold being formed," said Syracuse's Brown.

Calculations from a telescope measuring ultraviolet light showed that the combined mass of the heavy elements from this explosion is 1,300 times the mass of Earth. And all that stuff — including lighter elements — was thrown out in all different directions and is now speeding across the universe.

Perhaps one day the material will clump together into planets the way ours was formed, Reitze said — maybe ones with rich veins of precious metals.

The crash also helped explain the origins of one of the most dangerous forces of the cosmos — short gamma ray bursts, focused beams of radiation that could erase life on any planet that happened to get in the way. These bursts shoot out in two different directions perpendicular to where the two neutron stars first crash, Reitze said.

Luckily for us, the beams of gamma rays were not focused on Earth and were generated too far away to be a threat, he said.

Scientists knew that the universe has been expanding since the Big Bang. By using LIGO to measure gravitational waves while watching this event unfold, researchers came up with a new estimate for how fast that is happening, the so-called Hubble Constant. Before this, scientists came up with two slightly different answers using different techniques. The rough figure that came out of this event is between the original two, Reitze said.

The first optical images showed a bright blue dot that was very hot, which was likely the start of the heavy element creation process amid the neutron star debris, Drout said. After a day or two that blue faded, becoming much fainter and redder. And after three weeks it was completely gone, she said.

This almost didn't happen. Eight days after the signal came through, the LIGO gravitational waves were shut down for a year's worth of planned upgrades. A month later the whole area where the crash happened would have been blocked from astronomers' prying eyes by the sun.

Scientists involved with the search for gravitational waves said this was the event they had prepared for over more than 20 years.

The findings are "of spectacular importance," said Penn State physicist Abhay Ashtekar, who wasn't part of the research. "This is really brand new."

Almost all of the discoveries confirmed existing theories, but had not been proven — an encouraging result for theorists who have been trying to explain what is happening in the cosmos, said France Cordova, an astrophysicist who directs the National Science Foundation.

"We so far have been unable to prove Einstein wrong," said Georgia Tech physics professor Laura Cadonati. "But we're going to keep trying."