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Current Issue
June 2013
Table of Contents »
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The big science of the very small
Physicists have high hopes for Europe's giant new atom smasher—they want nothing less than to crack the code of the physical universe.
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Smashing protons
Trillions of protons rush toward collisions at 99.9999991 percent of the speed of light. Quarks and gluons inside the protons collide, exploding with enough energy to create the elusive Higgs (See figure 2).
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1. Smashing protons
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Proton makeup
Protons are composed of even smaller particles: three quarks held together by massive gluons.
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Proton makeup
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The Higgs particle
Probably 100 to 200 times the mass of a proton, The Higgs particle is unstable: It will last less than a millionth of a billionth of a billionth of a second before decaying into a spray of other particles.
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2. The Higgs particle
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The Big Science of the Very Small
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Signs of success
Evidence for the Higgs will be found in the telltale spirals and streaks left in LHC detectors by the particles created as it disintegrates.
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3. Evidence of the Higgs
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Beyond the Higgs
Why is there anything? Theoretically, the big bang should have yielded equal amounts of matter and antimatter that annihilated each other, leaving a largely empty universe. So why is our universe almost exclusively matter? The movements of distant galaxies and supernovae hint that the dark expanse of space holds vastly more matter and energy than we see in all the stars and galaxies. The LHC could shed light on this dark matter and dark energy.
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Next: Frontiers beyond the Higgs
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