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Göbekli Tepe: The Burying Of An Ancient Megalithic Site

May 18, 2015 / Steven Laniers Metaphysical Directory - Main Article Directory / 0 Comments

Dr. Rita Louise, GuestWhy Did Our Ancestors Inter This Ancient Massive Architectural Wonder?Located at the highest point of the Germus range in the southeastern Anatolia region of Turkey is the mysterious site of Göbekli Tepe. Excavations at Göbekli Tepe commenced in 1995 after German archaeologist Klaus Schmidt realized what was thought to be a Byzantine cemetery was actually a prehistoric site. Schmidt quickly unearthed a number of T-shaped pillars, which set th [...]

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Say NO to Tiny Houses and Big Bullsh… ~ Greg Giles

May 7, 2015 / Greg Giles / 0 Comments

Living the 'New' American DreamIn the days and on into the years ahead, you will not be able to get through a day without being subjected to an array of media articles, television shows, and all types of advertising for tiny houses, an alleged organi...

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‘God Particle’ analogue spotted outside a supercollider: Scientists find Higgs mode in a superconductor

February 25, 2015 / Greg Giles / 0 Comments

The God Particle, which is believed to be responsible for all the mass in the universe, was discovered in 2012 using a Cern's supercollider. In this image two high-energy photons collide. The yellow lines are the measured tracks of other particles produced in the collision, which helped lead to the discovery of the God particle.

Excerpt from dailymail.co.uk

God Particle is believed to be responsible for all the mass in the universe
Particle was discovered in 2012 using a Cern's supercollider in Geneva
uperconductor experiment suggests the particle could be detected without the huge amounts of energy used at by the Large Hadron Collider
LHC is due to come back online next month after an upgrade that has given it a big boost in energy

Scientists have discovered a simulated version of the elusive 'God particle' using superconductors.

The God Particle, which is believed to be responsible for all the mass in the universe, was discovered in 2012 using a Cern's supercollider.

The superconductor experiment suggests that the Higgs particle could be detected without the huge amounts of energy used at by the Large Hadron Collider.

The results could help scientists better understand how this mysterious particle – also known as the Higgs boson – behaves in different conditions.

'Just as the Cern experiments revealed the existence of the Higgs boson in a high-energy accelerator environment, we have now revealed a Higgs boson analogue in superconductors,' said researcher Aviad Frydman from Bar-Ilan University.

Superconductors are a type of metal that, when cooled to low temperatures, allow electrons to pass through freely.

'The Higgs mode was never actually observed in superconductors because of technical difficulties - difficulties that we've managed to overcome,' Professor Frydman said.

The superconductor experiment suggests that the Higgs particle could be detected without the huge amounts of energy used at by the Large Hadron Collider (pictured)

WHAT IS THE GOD PARTICLE?

The 'God Particle', also known as the Higgs boson, was a missing piece in the jigsaw for physicists in trying to understand how the universe works.

Scientists believe that a fraction of a second after the Big Bang that gave birth to the universe, an invisible energy field, called the Higgs field, formed.

This has been described as a kind of 'cosmic treacle' across the universe.

As particles passed through it, they picked up mass, giving them size and shape and allowing them to form the atoms that make up you, everything around you and everything in the universe.

This was the theory proposed in 1964 by former grammar school boy Professor Higgs that has now been confirmed.

Without the Higgs field particles would simply whizz around space in the same way as light does.

A boson is a type of sub-atomic particle. Every energy field has a specific particle that governs its interaction with what's around it.

To try to pin it down, scientists at the Large Hadron Collider near Geneva smashed together beams of protons – the 'hearts of atoms' – at close to the speed of light, recreating conditions that existed a fraction of a second after the Big Bang.

Although they would rapidly decay, they should have left a recognisable footprint. This footprint was found in 2012.

The main difficulty was that the superconducting material would decay into something known as particle-hole pairs.

Large amounts of energy – which are usually needed to excite the Higgs mode - tend to break apart the electron pairs that act as the material's charge.

Professor Frydman and his colleagues solved this problem by using ultra-thin superconducting films of Niobium Nitrite (NbN) and Indium Oxide (InO) as something known as the 'superconductor-insulator critical point.'

This is a state in which recent theory predicted the decay of the Higgs would no longer occur.

In this way, they could still excite a Higgs mode even at relatively low energies.

'The parallel phenomenon in superconductors occurs on a different energy scale entirely - just one-thousandth of a single electronvolt,' Professor Frydman added.

'What's exciting is to see how, even in these highly disparate systems, the same fundamental physics is at work.'

The different approach help solve one of the longstanding mysteries of fundamental physics.

The discovery of the Higgs boson verified the Standard Model, which predicted that particles gain mass by passing through a field that slows down their movement through the vacuum of space.

Although they would rapidly decay, the also left a recognisable footprint.

Professor Higgs, 83, has been waiting since 1964 for science to catch up with his ideas about the Higgs boson

According to Professor Frydman, observation of the Higgs mechanism in superconductors is significant because it reveals how a single type of physical process behaves under different energy conditions.

'Exciting the Higgs mode in a particle accelerator requires enormous energy levels - measured in giga-electronvolts, or 109 eV,' Professor Frydman says.

'The parallel phenomenon in superconductors occurs on a different energy scale entirely - just one-thousandth of a single electronvolt.

'What's exciting is to see how, even in these highly disparate systems, the same fundamental physics is at work.'

The LHC is due to come back online in March after an upgrade that has given it a big boost in energy.

'With this new energy level, the (collider) will open new horizons for physics and for future discoveries,' CERN Director General Rolf Heuer said in a statement.

'I'm looking forward to seeing what nature has in store for us.'

Cern's collider is buried in a 27-km (17-mile) tunnel straddling the Franco-Swiss border at the foot of the Jura mountains.

The LHC in Geneva will come back online in March after an upgrade that has given it a big boost in energy

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Monster Black Hole Is the Largest and Brightest Ever Found

February 25, 2015 / Greg Giles / 0 Comments

An artist's illustration of a monster supermassive black hole at the heart of a quasar in the distant universe. Scientists say the newfound black hole SDSS J010013.02+280225.8 is the largest and brightest ever found.

Excerpt from space.com

Astronomers have discovered the largest and most luminous black hole ever seen — an ancient monster with a mass about 12 billion times that of the sun — that dates back to when the universe was less than 1 billion years old.

It remains a mystery how black holes could have grown so huge in such a relatively brief time after the dawn of the universe, researchers say.

Supermassive black holes are thought to lurk in the hearts of most, if not all, large galaxies. The largest black holes found so far in the nearby universe have masses more than 10 billion times that of the sun. In comparison, the black hole at the center of the Milky Way is thought to have a mass only 4 million to 5 million times that of the sun.

Although not even light can escape the powerful gravitational pulls of black holes — hence, their name — black holes are often bright. That's because they're surrounded by features known as accretion disks, which are made up of gas and dust that heat up and give off light as it swirl into the black holes. Astronomers suspect that quasars, the brightest objects in the universe, contain supermassive black holes that release extraordinarily large amounts of light as they rip apart stars.
So far, astronomers have discovered 40 quasars — each with a black hole about 1 billion times the mass of the sun — dating back to when the universe was less than 1 billion years old. Now, scientists report the discovery of a supermassive black hole 12 billion times the mass of the sun about 12.8 billion light-years from Earth that dates back to when the universe was only about 875 million years old.

This black hole — technically known as SDSS J010013.02+280225.8, or J0100+2802 for short — is not only the most massive quasar ever seen in the early universe but also the most luminous. It is about 429 trillion times brighter than the sun and seven times brighter than the most distant quasar known.

The light from very distant quasars can take billions of years to reach Earth. As such, astronomers can see quasars as they were when the universe was young.

This black hole dates back to a little more than 6 percent of the universe's current age of 13.8 billion years.

"This is quite surprising because it presents serious challenges to theories of black hole growth in the early universe," said lead study author Xue-Bing Wu, an astrophysicist at Peking University in Beijing.

Accretion discs limit the speed of modern black holes' growth. First, as gas and dust in the disks get close to black holes, traffic jams slow down any other material that's falling into them. Second, as matter collides in these traffic jams, it heats up, emitting radiation that drives gas and dust away from the black holes.

The newfound quasar SDSS J0100+2802 has the most massive black hole and the highest luminosity among all known distant quasars, as shown in this comparison chart of the black hole's mass and brightness.

Scientists still do not have a satisfactory theory to explain how these supermassive objects formed in the early universe, Wu said.

"It requires either very special ways to quickly grow the black hole or a huge seed black hole," Wu told Space.com. For instance, a recent study suggested that because the early universe was much smaller than it is today, gas was often denser, obscuring a substantial amount of the radiation given off by accretion disks and thus helping matter fall into black holes.

The researchers noted that the light from this black hole could help provide clues about the dark corners of the distant cosmos. As the quasar's light shines toward Earth, it passes through intergalactic gas that colors the light. By deducing how this intergalactic gas influenced the spectrum of light from the quasar, scientists can deduce which elements make up this gas. This knowledge, in turn, can provide insight into the star-formation processes that were at work shortly after the Big Bang that produced these elements.

"This quasar is the most luminous one in the early universe, which, like a lighthouse, will provide us chances to use it as a unique tool to study the cosmic structure of the dark, distant universe," Wu said.
The scientists detailed their findings in the Feb. 26 issue of the journal Nature.

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Be Your Own Therapist ~ Tibetan Buddhist nun Robina Courtin ~ Video

November 30, 2014 / Greg Giles / 0 Comments

We spend our lives being seduced by the outside world, believing without question that happiness and suffering come from "out there." In reality, Buddhist teachings explain that they come from the way we perceive and interpret things, not the things...

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The Meaning of Peace in the Bhagavad Gita

September 19, 2014 / Steven Lanier's Journey - Main Research Blog / 0 Comments

V. Susan Ferguson, ContributorThe superb Sanskrit text, The Bhagavad Gita, is an amazing guide and in my view the ultimate ‘user’s manual’ for the human adventure. This ancient text is a dialogue between two mighty warrior heroes: Krishna and Arjuna. Krishna represents the God within us all, who is always waiting patiently to guide us – if we can listen. Arjuna is the greatest warrior of the time and Krishna is his charioteer, his guide in the battle of life. He wil [...]

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30 Life Changing Lessons to Learn from Thích Nhất Hạnh

September 9, 2014 / Steven Lanier's Journey - Main Research Blog / 0 Comments

Luminita Saviuc, Purpose FairyWhen I think of Thích Nhất Hạnh, words like – stillness, love, compassion, peace and oneness, come to mind. And even though these are some really beautiful and powerful words, they somehow can’t really express the beautiful, pure and loving feelings that I get from reading Thích Nhất Hạnh’s books and watching his beautiful videos.Thích Nhất Hạnh is someone who’s wor [...]

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Intention and the Rite of Disengagement

August 30, 2014 / Steven Lanier's Journey - Main Research Blog / 0 Comments

What we participate in is pretty much the name of the game. What do we spend our time, energy and intention on? What are we consciously and/or subconsciously empowering that’s leading to our own dis-empowerment? Where attention and thus intention goes, energy flows. Where is ours going, collectively and individually? Something to seriously consider on a continual basis in this massively manipulated energetic world.I’ve been blown away recently by the rapid rise in consciousness [...]

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Gaining the Strength to Reach Your Limitless Potential

August 16, 2014 / Steven Lanier's Journey - Main Research Blog / 0 Comments

The stroke of midnight is here. Prepare yourselves for a quantum leap in consciousness. …..What is next for us cosmically? The huge Mayan shift back in 2012 has definitely left us with something to think about, but is anyone really aware of just what that shift filled with subtle nuances entails? How do we identify with anything subtle in this not-so-subtle world?Why aren’t we seeing the effects of a shift in the world? Doesn’t it feel as if things have just gotten far w [...]

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