Little known facts about God:

  • He has never understood why we don’t always smile
  • The Devil never tells lies about Him, not a one
  • Sometimes He is sad — often not as sad as some think He should be, but He is
  • His ice cream is flavoured with the Higgs boson
Seven Virtues/Seven Sins.
Learn from your Sin.
Understand your Virtues.


  1. Humility
  2. Pride
  3. Patience
  4. Wrath
  5. Temperance
  6. Gluttony
  7. Kindness
  8. Envy
  9. Charity
  10. Greed
  11. Chastity 
  12. Lust
  13. Diligence
  14.  Sloth 

Odd Numbers  (+) Positive

Even Numbers (-) Negative

Positive and Negative are attracted to each other. 

Perhaps, there are 14 Dimensions/Multi Universe

Each Dimension/M.U. representing a Chakra Ego Lifeline (C.E.L.)

What if each Lifeline is happening now. Time exist for our Body but not our Mind

Each C.E.L. is a past life living and learning that Sin or Virtue

Each one representing either a positive or a negative aspect of the Ego. 

What if, You really could heal your past?


Higgs Boson Confirms Reigning Physics Model Yet Again

For a subatomic particle that remained hidden for nearly 50 years, the Higgs boson is turning out to be remarkably well behaved.

Yet more evidence from the world’s largest particle accelerator, the Large Hadron Collider (LHC) in Switzerland, confirms that the Higgs boson particle, thought to explain why other particles have mass, acts just as predicted by the Standard Model, the dominant physics theory that describes the menagerie of subatomic particles that make up the universe.

"This is exactly what we have expected from the Standard Model," said Markus Klute, a physicist at the Massachusetts Institute of Technology and one of the researchers involved in the Higgs search.

The new results show that the Higgs boson decays into subatomic particles that carry matter called fermions — in particular, it decays into a heavier brother particle of the electron called a tau lepton, Klute said. This decay has been predicted by the Standard Model. Even so, the findings are a bit of a disappointment for physicists who were hoping for hints of completely new physics.

Where does the Standard Model of physics come from?

The Standard Model of particle physics is a triumph of science. It’s a collection of 17 particles, and four forces. Physicists like to call it “elegant” but to the untrained eye, it looks anything but. Where does this all come from? In this week’s Ask a Physicist, we’ll find out.

A few weeks ago, we had a contest to come up with the some of the most interesting questions about the universe. This week’s winner is Koen, who wins a copy of my new book by posing the rather deep question:

We have this amazing Standard Model to explain what the fundamental particles are. What is the mechanism ‘behind the curtain’ that generates these laws?

Continue Reading

In which I explain the Higgs Boson to my girlfriend, who is a biologist not a physicist.
  • Alex Wright:ok, so, first I should explain what a Boson is
  • Krista:ok
  • coles notes version please
  • Alex Wright:
  • alright, so, a boson is a field mediating particle, like a photon
  • are you familiar with the electromagnetic field?
  • Krista:
  • yes
  • Alex Wright:
  • ok, so the photon is the boson that mediates the electromagnetic field.
  • the field, and force, doesn't exist without and is made up of photons. If you excite the field to a certain energy, photons are released.
  • and we can observe them
  • Krista:
  • yes I understand that
  • Alex Wright:
  • it's like when you slosh around a bucket of water and some of the water at the surface splashes up into a drop separate from the larger body of water
  • ok, so that's the basics of bosons
  • the Higgs boson is a very special type of boson
  • You know that atoms are essentially 98% empty space, yes?
  • Krista:
  • ok
  • Alex Wright:
  • you've got your nucleus, and the electrons are floating around about as far away as jupiter from the sun, if we're talking scale here.
  • Krista:
  • yes
  • I know that
  • Alex Wright:
  • so most of the universe is about 98% nothing
  • but this doesn't really make sense, because if it was truly empty, everything would be zooming around at the speed of light
  • einstein's general relativity tells us that the thing that keeps particles form zooming about at light speed is mass.
  • some particles don't have mass, like photons and electrons, which obviously travel at light speed.
  • Krista:
  • ok
  • Alex Wright:
  • but what creates mass?
  • 50 years ago, a smart guy named Peter Higgs suggested that that 98% of empty space wasn't empty at all, he hypothesized that this empty space was actually completely saturated with the Higgs Field
  • the Higgs field acts like a quantum molasses which slows down these particles as they travel through space.
  • Krista:
  • ooo cool
  • Alex Wright:
  • so, he proposed this 50 years ago, and described the phenomenon with mathematics, and it made sense
  • but the problem was, the Higgs field has such high energy, and because of Einstein's E=mc^2 equation, such high mass properties, it takes an immense amount of energy to excite the field enough to observe the particle
  • and then they did
  • Krista:
  • ohhh
  • Ok. wow I actually get it.
  • a few seconds ago
  • Alex Wright:
  • Yay
  • Krista:
  • you should post that explanation.
  • because every other one makes no sense.

Peter Higgs: I Wouldn’t Be Productive Enough For Today’s Academic System: 

Peter Higgs: ‘Today I wouldn’t get an academic job. It’s as simple as that’. Photograph: David Levene for the Guardian

Peter Higgs, the British physicist who gave his name to the Higgs boson, believes no university would employ him in today’s academic system because he would not be considered “productive” enough.

The emeritus professor at Edinburgh University, who says he has never sent an email, browsed the internet or even made a mobile phone call, published fewer than 10 papers after his groundbreaking work, which identified the mechanism by which subatomic material acquires mass, was published in 1964.

He doubts a similar breakthrough could be achieved in today’s academic culture, because of the expectations on academics to collaborate and keep churning out papers. He said: “It’s difficult to imagine how I would ever have enough peace and quiet in the present sort of climate to do what I did in 1964.”

Speaking to the Guardian en route to Stockholm to receive the 2013 Nobel prize for science, Higgs, 84, said he would almost certainly have been sacked had he not been nominated for the Nobel in 1980.

Edinburgh University’s authorities then took the view, he later learned, that he “might get a Nobel prize – and if he doesn’t we can always get rid of him”.

Higgs said he became “an embarrassment to the department when they did research assessment exercises”. A message would go around the department saying: “Please give a list of your recent publications.” Higgs said: “I would send back a statement: ‘None.’ “

By the time he retired in 1996, he was uncomfortable with the new academic culture. “After I retired it was quite a long time before I went back to my department. I thought I was well out of it. It wasn’t my way of doing things any more. Today I wouldn’t get an academic job. It’s as simple as that. I don’t think I would be regarded as productive enough.”

Higgs revealed that his career had also been jeopardised by his disagreements in the 1960s and 70s with the then principal, Michael Swann, who went on to chair the BBC. Higgs objected to Swann’s handling of student protests and to the university’s shareholdings in South African companies during the apartheid regime. “[Swann] didn’t understand the issues, and denounced the student leaders.”

He regrets that the particle he identified in 1964 became known as the “God particle”.

He said: “Some people get confused between the science and the theology. They claim that what happened at Cern proves the existence of God.”

An atheist since the age of 10, he fears the nickname “reinforces confused thinking in the heads of people who are already thinking in a confused way. If they believe that story about creation in seven days, are they being intelligent?”

He also revealed that he turned down a knighthood in 1999. “I’m rather cynical about the way the honours system is used, frankly. A whole lot of the honours system is used for political purposes by the government in power.”

He has not yet decided which way he will vote in the referendum onScottish independence. “My attitude would depend a little bit on how much progress the lunatic right of the Conservative party makes in trying to get us out of Europe. If the UK were threatening to withdraw from Europe, I would certainly want Scotland to be out of that.”

He has never been tempted to buy a television, but was persuaded to watch The Big Bang Theory last year, and said he wasn’t impressed.

They found god in the parking lot. It whispered a few things before it shouted, love and hunger, kisses and murder. It spoke of the endless days of lying hidden in plain sight. A quiet eternity leading to an overpowering moment of awful flashing brilliance. We took a billion pictures of which a few had the same shadow.

The shadow they say is particle of gods semen encased in pocket lint.

Nothing much changed at the Deli though. Joe showed up but Maria wasn’t there, called in sick. A customer sat winking and blinking, opening one eye and quickly closing the other. “Indra is getting sleepy,” he says, pushing aside what was once a plate of flapjacks.

I feel it too, like a blissful silence, waiting for dessert.

This Week in Science - March 4 - 10, 2013:

  • Liquid Below Freezing Point here.
  • Europa's Ocean here.
  • Extinct Giant Camel Discovered here.
  • Deserts ‘damaged’ by Mad Max film crew here.
  • The father of all men here.
  • Make an old brain young here.
  • 1st Complete Map of Planet Mercury here.
  • 'Achingly Close' to confirming Higgs Boson here.
  • Adding human brain cells to mice here.
  • Mouse re-cloning to the 25th generation perfected here.
  • Brain Activity Map here.
  • Bee Venom Kills HIV here.

Supercharging the search for secrets of the universe

image 1: The Large Hadron Collider at CERN faces a two-year shutdown so engineers can ramp up its maximum energy.
image 2: Proton-proton collisions during the search for the Higgs boson. Photo: AFP
image 3: A collision event between two lead ions in the Large Hadron Collider as observed by the ALICE detector. Photo: Supplied
image 4: A simulated black hole created by the Large Hadron Collider. Photo: Supplied

When it comes to shutting down the most powerful atom smasher ever built, it’s not simply a question of pressing the off switch.

In the French-Swiss countryside on the far side of Geneva, staff at the Cern particle physics laboratory are taking steps to wind down the Large Hadron Collider. After the latest run of experiments ends next month, the huge superconducting magnets that line the LHC’s 27km-long tunnel must be warmed up, slowly and gently, from -271 Celsius to room temperature. Only then can engineers descend into the tunnel to begin their work.

The machine that last year helped scientists snare the elusive Higgs boson - or a convincing subatomic impostor - faces a two-year shutdown while engineers perform repairs that are needed for the collider to ramp up to its maximum energy in 2015 and beyond. The work will beef up electrical connections in the machine that were identified as weak spots after an incident four years ago that knocked the collider out for more than a year.

The accident happened days after the LHC was first switched on in September 2008, when a short circuit blew a hole in the machine and sprayed six tonnes of helium into the tunnel that houses the collider. Soot was scattered over 700 metres. Since then, the machine has been forced to run at near half its design energy to avoid another disaster.

The particle accelerator, which reveals new physics at work by crashing together the innards of atoms at close to the speed of light, fills a circular, subterranean tunnel a staggering eight kilometres in diameter. Physicists will not sit around idle while the collider is down. There is far more to know about the new Higgs-like particle, and clues to its identity are probably hidden in the piles of raw data the scientists have already gathered, but have had too little time to analyse.

But the LHC was always more than a Higgs hunting machine. There are other mysteries of the universe that it may shed light on. What is the dark matter that clumps invisibly around galaxies? Why are we made of matter, and not antimatter? And why is gravity such a weak force in nature? “We’re only a tiny way into the LHC programme,” says Pippa Wells, a physicist who works on the LHC’s 7000-tonne Atlas detector. “There’s a long way to go yet.”

The hunt for the Higgs boson, which helps explain the masses of other particles, dominated the publicity around the LHC for the simple reason that it was almost certainly there to be found. The lab fast-tracked the search for the particle, but cannot say for sure whether it has found it, or some more exotic entity.

"The headline discovery was just the start," says Wells. "We need to make more precise measurements, to refine the particle’s mass and understand better how it is produced, and the ways it decays into other particles." Scientists at Cern expect to have a more complete identikit of the new particle by March, when repair work on the LHC begins in earnest.

By its very nature, dark matter will be tough to find, even when the LHC switches back on at higher energy. The label “dark” refers to the fact that the substance neither emits nor reflects light. The only way dark matter has revealed itself so far is through the pull it exerts on galaxies.

Studies of spinning galaxies show they rotate with such speed that they would tear themselves apart were there not some invisible form of matter holding them together through gravity. There is so much dark matter, it outweighs by five times the normal matter in the observable universe.

The search for dark matter on Earth has failed to reveal what it is made of, but the LHC may be able to make the substance. If the particles that constitute it are light enough, they could be thrown out from the collisions inside the LHC. While they would zip through the collider’s detectors unseen, they would carry energy and momentum with them. Scientists could then infer their creation by totting up the energy and momentum of all the particles produced in a collision, and looking for signs of the missing energy and momentum.

One theory, called supersymmetry, proposes that the universe is made from twice as many varieties of particles as we now understand. The lightest of these particles is a candidate for dark matter.

Wells says that ramping up the energy of the LHC should improve scientists’ chances of creating dark matter: “That would be a huge improvement on where we are today. We would go from knowing what 4 per cent of the universe is, to around 25 per cent.”

Teasing out the constituents of dark matter would be a major prize for particle physicists, and of huge practical value for astronomers and cosmologists who study galaxies.

"Although the big PR focus has been on the Higgs, in fact looking for new particles to provide clues to the big open questions is the main reason for having the LHC," says Gerry Gilmore, professor of experimental philosophy at the Institute of Astronomy in Cambridge.

"Reality on the large scale is dark matter, with visible matter just froth on the substance. So we focus huge efforts on trying to find out if dark matter is a set of many elementary particles, and hope that some of those particles’ properties will also help to explain some other big questions. So far, astronomy has provided all the information on dark matter, and many of us are working hard to deduce more of its properties. Finding something at the LHC would be wonderful in helping us in understanding that. Of course one needs both the LHC and astronomy. The LHC may find the ingredients nature uses, but astronomy delivers the recipe nature made reality from."

Another big mystery the Large Hadron Collider may help crack is why we are made of matter instead of antimatter. The big bang should have flung equal amounts of matter and antimatter into the early universe, but today almost all we see is made of matter. What happened at the dawn of time to give matter the upper hand?

The question is central to the work of scientists on the LHCb detector. Collisions inside LHCb produce vast numbers of particles called beauty quarks, and their antimatter counterparts, both of which were common in the aftermath of the big bang. Through studying their behaviour, scientists hope to understand why nature seems to prefer matter over antimatter.

Turning up the energy of the LHC may just give scientists an answer to the question of why gravity is so weak. The force that keeps our feet on the ground may not seem puny, but it certainly is. With just a little effort, we can jump in the air, and so overcome the gravitational pull of the whole six thousand billion billon tonnes of the planet. The other forces of nature are far stronger.

One explanation for gravity’s weakness is that we experience only a fraction of the force, with the rest acting through microscopic, curled up extra dimensions of space. “The gravitational field we see is only the bit in our three dimensions, but actually there are lots of gravitational fields in the fourth dimension, the fifth dimension, and however many more you fancy,” says Andy Parker, professor of high energy physics at Cambridge University. “It’s an elegant idea. The only price you have to pay is that you have to invent these extra dimensions to explain where the gravity has gone.”

The rules of quantum mechanics say that particles behave like waves, and as the LHC ramps up to higher energies the wavelengths of the particles it collides become ever shorter. When the wavelengths of the particles are small enough to match the size of the extra dimensions, they would suddenly feel gravity much more strongly.

"What you’d expect is that as you reach the right energy, you suddenly see inside the extra dimensions, and gravity becomes big and strong instead of feeble and weak," says Parker. The sudden extra pull of gravity would cause particles to scatter far more inside the machine, giving scientists a clear signal that extra dimensions were real.

Extra dimensions may separate us from realms of space we are completely oblivious to. “There could be a whole universe full of galaxies and stars and civilisations and newspapers that we didn’t know about,” says Parker. “That would be a big deal.”