Professor Higgs Says Fame Is 'A Bit Of A Nuisance' Since Boson's Discovery

Professor Higgs Says Fame Is 'A Bit Of A Nuisance'

God particle scientist Professor Peter Higgs, who was awarded the Nobel Prize in Physics last year, has admitted that he finds his new-found fame "a bit of a nuisance".

Speaking in the first episode of The Life Scientific on BBC Radio 4, the unassuming 84-year-old talks frankly about the work pressures that helped break-up his marriage.

He also reveals how he struggled alone with his theories in the 1960s.

"Nobody else took what I was doing seriously, so nobody would want to work with me," he tells presenter Jim Al-Khalili. "I was thought to be a bit eccentric and maybe cranky."

Prof Higgs was thrust into the limelight after the elusive fundamental particle that bears his name was found by scientists at the Large Hadron Collider (LHC), the huge atom-smashing machine built to probe the origins of the universe.

However, the transition to celebrityhood was not a comfortable one for him.

Asked how he feels about being stopped in the street and asked for his autograph, he says: "It's a bit of a nuisance sometimes, frankly."

The Higgs boson, nicknamed the "God Particle", provides mass to the most basic building blocks of matter.

Without it, the Standard Model theory that combines all the fundamental forces and particles of the universe would have fallen down.

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Nobel laureate Professor Peter Higgs at the Science Museum, London, ahead of the opening of the the museum's new "Collider" exhibition, which gives visitors a behind-the-scenes look at the Large Hadron Collider (LHC) and Cern particle physics laboratory in Geneva. (credit:PA)
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FILE - In this March 22, 2007 file picture, the magnet core of the world's largest superconducting solenoid magnet (CMS, Compact Muon Solenoid), one of the experiments preparing to take data at European Organization for Nuclear Research (CERN)'s Large Hadron Collider (LHC) particle accelerator is seen, near Genva, Switzerland. The head of the world's biggest atom smasher is claiming discovery of a new particle that he says is consistent with the long-sought Higgs boson known popularly as the "God particle" which is believed to give all matter in the universe size and shape. The results of the experiment will be announced Wednesday July 4, 2012. (AP Photo/Keystone/Martial Trezzini, File) (credit:AP)
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In this 2005 photo provided by CERN, the European Organization for Nuclear Research, technicians check the magnets that will direct protons towards the target for the CERN Neutrinos to Gran Sasso (CNGS) project in Geneva. The project team, a collaboration between France's National Institute for Nuclear and Particle Physics Research and Italy's Gran Sasso National Laboratory, fired a neutrino beam 454 miles (730 kilometers) underground from Geneva to Italy. They found it traveled 60 nanoseconds faster than light. That's sixty billionth of a second, a time no human brain could register. Physicists on the team said Friday Sept. 23, 2011 they were as surprised as their skeptics about the results, which appear to violate the laws of nature as we know them. (AP Photo/CERN) (credit:AP)
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FILE - In this March 22, 2007 file photo, the magnet core of the world's largest superconducting solenoid magnet (CMS, Compact Muon Solenoid) is shown in Geneva, Switzerland. The world's largest atom smasher set a record for high-energy collisions on Tuesday, March 30, 2010 by crashing proton beams into each other at three times more force than ever before. In a milestone in the $10 billion Large Hadron Collider's ambitious bid to reveal details about theoretical particles and microforces, scientists at the European Organization for Nuclear Research, or CERN, collided the beams and took measurements at a combined energy level of 7 trillion electron volts. (AP Photo/Keystone, Martial Trezzini, File) (credit:AP)
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FILE - In this May 31, 2007 file photo, a view of the LHC (large hadron collider) in its tunnel at CERN (European particle physics laboratory) near Geneva, Switzerland is shown. The world's largest atom smasher set a record for high-energy collisions on Tuesday, March 30, 2010 by crashing proton beams into each other at three times more force than ever before. In a milestone in the $10 billion Large Hadron Collider's ambitious bid to reveal details about theoretical particles and microforces, scientists at the European Organization for Nuclear Research, or CERN, collided the beams and took measurements at a combined energy level of 7 trillion electron volts. (AP Photo/Keystone, Martial Trezzini, File) (credit:AP)
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BERLIN - OCTOBER 14: Workers walk past a giant photograph of a part of the Large Hadron Collider (LHC) at the 'Weltmaschine '('World Machine') exhibition on October 14, 2008 in Berlin, Germany. The exhibition documents the LHC and is on display at the Bundestag U-Bahn station from October 15 through November 16. (Photo by Sean Gallup/Getty Images) (credit:Getty Images)
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A scientist is seen at the European Organization for Nuclear Research's (CERN) Large Hadron Collider (LHC) Computing Grid room during its inauguration on October 3, 2008 in Geneva. The Worldwide LHC Computing Grid combines the power of more than 140 computer centers in 33 countries that process more than 15 million Gigabytes of data every year produced from the hundreds of millions of subatomic collisions expected inside the Large Hadron Collider (LHC) every second. AFP PHOTO / FABRICE COFFRINI (Photo credit should read FABRICE COFFRINI/AFP/Getty Images) (credit:Getty Images)
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GENEVA - JUNE 16: A model of the Large Hadron Collider (LHC) tunnel is seen in the CERN (European Organization For Nuclear Research) visitors' center June 16, 2008 in Geneva-Meyrin, Switzerland. CERN is building the world's biggest and most powerful particle accelerator. The LHC is being installed in a tunnel 27 kilometers in circumference, buried 50 - 150 meters below ground. It will provide collisions at the highest energies ever observed in laboratory conditions. Four huge detectors - ALICE, ATLAS, CMS and LHCB - will observe the collisions so that the physicists can explore new territory in matter, energy, space and time. (Photo by Johannes Simon/Getty Images) (credit:Getty Images)
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GENEVA - JUNE 16: The older UAI central detector is displayed in the CERN (European Organization For Nuclear Research) visitors' center on June 16, 2008 in Geneva-Meyrin, Switzerland. CERN is building the Large Hadron Collider (LHC), the world's biggest and most powerful particle accelerator. The LHC is being installed in a tunnel 27 kilometers in circumference, buried 50 - 150 meters below ground. It will provide collisions at the highest energies ever observed in laboratory conditions. Four huge detectors - ALICE, ATLAS, CMS and LHCB - will observe the collisions so that the physicists can explore new territory in matter, energy, space and time. (Photo by Johannes Simon/Getty Images) (credit:Getty Images)
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Geneva, SWITZERLAND: An engineer works to assemble, 22 Mars 2007, near Geneva, one of the layers of the world's largest superconducting solenoid magnet (CMS), one of the experiments preparing to take data at European Organization for Nuclear Research (CERN)'s Large Hadron Collider (LHC) particule accelerator which is scheduled to switch on in next November 2007. CMS physicists will address some of nature's most fundamental question. Some 2000 scientists from 155 institutes in 36 countries are worlking together to build the CMS particle detector. AFP PHOTO / FABRICE COFFRINI (Photo credit should read FABRICE COFFRINI/AFP/Getty Images) (credit:Getty Images)
(FILES) A file photo on April 26, 2007 p(11 of13)
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(FILES) A file photo on April 26, 2007 provided by the European Organization for Nuclear Research (CERN) shows a large dipole magnet symbolically lowered into the tunnel, in Geneva, to mark the end of a crucial phase of installation of the Large Hadron Collider (LHC). The world's biggest atom-smasher, shut down after its inauguration in September 2008 amid technical faults, restarted on Friday, a spokesman for the European Organisation for Nuclear Research said. Nestled inside a 27-km long tunnel straddling the Franco-Swiss border near Geneva, the LHC promises to unlock scientific mysteries about the creation of the Universe and the fundamental nature of matter. AFP PHOTO / HO / CERN (Photo credit should read CERN/AFP/Getty Images) (credit:Getty Images)
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Geneva, SWITZERLAND: Photo shows a giant magnet weighing 1920 tonnes 28 February, 2007 at the European Organization for Nuclear Research (CERN) in Geneva. The magnet was sent underground where it will rest 100 metres down in a 27km tunnel to provide a magnetic field for a giant particle detector. The detector will collect data for a particle accelerator known the Large Hadron Collider (LCH), which is scheduled to be turned in November 2007. AFP PHOTO / JEAN-PIERRE CLATOT (Photo credit should read JEAN-PIERRE CLATOT/AFP/Getty Images) (credit:Getty Images)
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Geneva, SWITZERLAND: Photo shows a giant magnet weighing 1920 tonnes 28 February, 2007 at the European Organization for Nuclear Research (CERN) in Geneva. The magnet was sent underground where it will rest 100 metres down in a 27km tunnel to provide a magnetic field for a giant particle detector. The detector will collect data for a particle accelerator known the Large Hadron Collider (LCH), which is scheduled to be turned in November 2007. AFP PHOTO / JEAN-PIERRE CLATOT (Photo credit should read JEAN-PIERRE CLATOT/AFP/Getty Images) (credit:Getty Images)

Prof Higgs predicted the existence of the particle while working at Edinburgh University in 1964. But until the momentous discovery at the LHC near Geneva in 2012 it had proved impossible to track down.

In the Radio 4 interview, to be broadcast tomorrow at 9am, Prof Higgs says he initially failed to appreciate the significance of his theory.

"It seemed to me that this was an important result which I had got, but of course it wasn't clear at the time how it would be applied in particle physics, and those of us who did the work in '64 were looking in the wrong place for the application," he confesses.

Eventually it was left to others, led by Steven Weinberg, to build on Prof Higgs' work and put together the Standard Model.

Prof Higgs regrets missing an opportunity when he met American Nobel Laureate Professor Sheldon Glashow at the first Scottish Universities Summer School in Physics in 1960.

He says: "There were a group of students at the summer school who stayed up halfway through the night discussing things like weak and electromagnetic interactions, but I wasn't part of that - I was on the committee, and I had work to do, so I didn't stay up all night, so I didn't learn about Glashow's theory when I could have."

In 1979 Prof Glashow was awarded the physics Nobel Prize for work on electroweak interactions, which made a major contribution to the Standard Model.

After the publication of the Standard Model Prof Higgs admits he was left behind as the field continued to develop.

He shot from obscurity to fame after the Higgs boson discovery and last year shared the Nobel Prize with Belgian Francois Englert.

Prof Higgs added that he believes a third scientist should have shared the Nobel Prize, theoretical physicist Professor Tom Kibble, from Imperial College London, who also worked on the Higgs boson.