Don Lincoln

Don Lincoln

don lincoln

Dr. Don Lincoln is a Senior Scientist at Fermilab, America’s leading particle physics laboratory, who has coauthored over 1,500 scientific papers. He was a member of the teams that discovered the top quark in 1995 and the Higgs boson in 2012.

Dr. Lincoln is also an avid popularizer of science. He has written several books for the public, most recently Einstein’s Unfinished Dream. He also writes for many online venues, such as CNN and Scientific American. He appears frequently on the Fermilab YouTube channel and has made several video courses available through The Great Courses company.

Dr. Lincoln is a recipient of the 2013 Outreach Prize from the European Physical Society and the 2017 Gemant Award from the American Institute of Physics. He is a Fellow of the American Physical Society and the American Association for the Advancement of Science.

You can learn more about Dr. Lincoln on his home page, and you can follow him on Facebook

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Explanations for the cosmic speed limit often conflate mass with inertia.
An abstract geometric pattern of spirals and interlocking squares in white on a black grid background evokes the elegant precision often found at the intersection of mathematics and science.
Physicist Don Lincoln explains why mathematics is a powerful tool for scientific modeling, but is not a science itself.
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Despite no experimental evidence showing that gravitons exist, they remain a respectable concept in the world of professional physicists.
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A recent measurement has simultaneously settled an ongoing scientific debate while puzzling scientists.
A telescope beneath a colorful, abstract visualization of the universe, with a starry night sky in the background.
DESI has allowed astronomers to create an unprecedented 3D map of the Universe representing 20% of the entire sky.
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"A person’s mass is made not of 'stuff' in the way we normally think about it, but rather our mass is made of energy."
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The race to find dark matter could grow more complex with high-energy neutrino interference.
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Why hasn’t matter fallen apart over billions of years? The mystery might start with protons.
A person stands in front of a large, circular particle detector in a brightly lit, high-tech facility.
CERN scientists achieved record-breaking accuracy in mapping the mass of a key particle in the Standard Model.
A technician in a cleanroom suit works by a large cylindrical piece of equipment in a high-tech laboratory setting with industrial tools and machinery.
A recent experiment challenges the leading dark matter theory and hints at new directions for uncovering one of the Universe's biggest mysteries.
Diagram showing four circles, each containing a different particle symbol: antiproton (n-bar), antineutron (n-bar), anti-lambda (Λ-bar), and antiproton (p-bar), set against a graph-like background.
Researchers at the Brookhaven National Laboratory recently created the heaviest exotic antimatter hypernucleus ever observed.
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DUNE is designed to detect the Universe's most antisocial particle: the neutrino.
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Quarks and leptons are the smallest known subatomic particles. Does the Standard Model allow for an even smaller layer of matter to exist?
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A recent paper in the journal Physical Review Letters claims to prove that a "kugelblitz" is not possible.
A black and white particle track image on the left and a colorful representation of a neutrino.
The properties of a ghostly particle called a neutrino are coming into focus.
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CERN's NA64 experiment used a high-energy muon beam technique to advance the elusive search for dark matter, offering new hope for solving one of astronomy's greatest mysteries.
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Scientists are searching for dark matter particles that are trillions or even quadrillion times lighter than the more traditional searches. 
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IceCube scientists have detected high-energy tau neutrinos from deep space, suggesting that neutrino transformations occur not only in lab experiments but also over cosmic distances.
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The JWST's observations of well-developed galaxies early in universal history may coincide with accepted astronomical theory after all.