Benefits of HEP Homepage | U.S. DOE Office of Science (SC)
Source: https://science.osti.gov/hep/Benefits-of-HEP
Archived: 2026-04-23 17:11
Benefits of HEP Homepage | U.S. DOE Office of Science (SC)
Official websites use .gov
A
.gov
website belongs to an official government organization in the United States.
Secure .gov websites use HTTPS
A
lock
(
) or
https://
means you’ve safely connected to
the .gov website. Share sensitive information only on official,
secure websites.
Benefits of HEP
Click here to download the pdf
Particle Physics: Benefits to Society
Each generation of particle accelerators and detectors builds on the previous one, raising the potential for
discovery and pushing the level of technology ever higher. In 1930, Ernest O. Lawrence, the father of particle
accelerators, built the first hand-held cyclotron at Berkeley, California. Larger and more powerful accelerators
soon followed. After a day’s research, Lawrence often operated the Berkeley cyclotrons through the night to produce
medical isotopes for research and treatment. In 1938, Lawrence’s mother became the first cancer patient to be
treated successfully with particles from cyclotrons. Now, doctors use particle beams for the diagnosis and healing
of millions of patients. From the earliest days of high energy physics in the 1930s to the latest 21st-century
initiatives, the bold and innovative ideas and technologies of particle physics have entered the mainstream of
society to transform the way we live.
Some applications of particle physics, the superconducting wire and cable at the heart of magnetic resonance
imaging magnets, the World Wide Web are so familiar they are almost cliches. But particle physics has myriad
lesser-known impacts. Few outside the community of experts who study the behavior of fluids in motion have probably
heard of the particle detector technology that revolutionized the study of fluid turbulence in fuel flow.
What is unique to particle physics is the scale of the science: the size and complexity not only of accelerators
and detectors but also of scientific collaborations. For example, superconducting magnets existed before Fermilab’s
Tevatron but the scale of the accelerator made the production of such magnets an industrial process, which led to
the economical MRI machine. The World Wide Web was invented to solve the problem of communicating in an
international collaboration of thousands of physicists. The scale on which particle physicists work pushes them
beyond what many other sciences do.
Selected examples from medicine, homeland security, industry, computing, science, and workforce development
illustrate a long and growing list of beneficial practical applications with contributions from particle physics.
Medicine
Particle accelerators and detectors first developed for particle physics are now used by every major medical center in the nation to treat and diagnose millions of patients.
Homeland security
From scanning cargo in ports to monitoring nuclear waste, the same advanced detector technology that physicists use to analyze particles can also better protect the nation.
Industry
Particle physicists rely on industry to produce and advance the millions of components that experiments require, putting companies on a fast-track towards new products and life-changing technologies.
Computing
To record and analyze the unprecedented volumes of data generated in particle collisions, particle physicists develop cutting-edge computing technology, making key contributions to solutions at the frontiers of computer science.
Sciences
Particle physicists need cutting-edge tools; many of these, such as the synchrotron light source, benefit other areas of science.
Workforce Development
The majority of students who gain their PhDs in particle physics go on to work for high-tech industry,financial institutions and information technology businesses.
A Growing List
The science and technology of particle physics have transformational applications for many other areas of benefit to the nation's well-being.
New Precise Calculation of Nuclear Beta Decays Paves the Way to Uncover Physics Beyond the Standard Model
Theorists identify new effects needed to compute the nuclear beta decay rate with a precision of a few parts in ten thousand.
Belle II Detector Produces World’s Most Precise Measurements of Subatomic Particle Lifetimes
Particle lifetime measurements with early data from the Belle II experiment at the SuperKEKB accelerator demonstrate the experiment’s high precision.
Contact High Energy Physics
Address
U.S. Department of Energy
SC-25/Germantown Building
1000 Independence Ave., SW
Washington, DC 20585
Phone
Tel(301) 903-3624
Fax(301) 903-2597
Email
Send us a message
sc.hep@science.doe.gov
Read more about
Top
Leaving Office of Science
The link you have requested will take you to a website outside the Office of Science.
Please click the following link to continue:
Thank you for visiting our site. We hope your visit was informative and enjoyable.
sub nav
Benefits of HEP Homepage | U.S. DOE Office of Science (SC)
Official websites use .gov
A
.gov
website belongs to an official government organization in the United States.
Secure .gov websites use HTTPS
A
lock
(
) or
https://
means you’ve safely connected to
the .gov website. Share sensitive information only on official,
secure websites.
Benefits of HEP
Click here to download the pdf
Particle Physics: Benefits to Society
Each generation of particle accelerators and detectors builds on the previous one, raising the potential for
discovery and pushing the level of technology ever higher. In 1930, Ernest O. Lawrence, the father of particle
accelerators, built the first hand-held cyclotron at Berkeley, California. Larger and more powerful accelerators
soon followed. After a day’s research, Lawrence often operated the Berkeley cyclotrons through the night to produce
medical isotopes for research and treatment. In 1938, Lawrence’s mother became the first cancer patient to be
treated successfully with particles from cyclotrons. Now, doctors use particle beams for the diagnosis and healing
of millions of patients. From the earliest days of high energy physics in the 1930s to the latest 21st-century
initiatives, the bold and innovative ideas and technologies of particle physics have entered the mainstream of
society to transform the way we live.
Some applications of particle physics, the superconducting wire and cable at the heart of magnetic resonance
imaging magnets, the World Wide Web are so familiar they are almost cliches. But particle physics has myriad
lesser-known impacts. Few outside the community of experts who study the behavior of fluids in motion have probably
heard of the particle detector technology that revolutionized the study of fluid turbulence in fuel flow.
What is unique to particle physics is the scale of the science: the size and complexity not only of accelerators
and detectors but also of scientific collaborations. For example, superconducting magnets existed before Fermilab’s
Tevatron but the scale of the accelerator made the production of such magnets an industrial process, which led to
the economical MRI machine. The World Wide Web was invented to solve the problem of communicating in an
international collaboration of thousands of physicists. The scale on which particle physicists work pushes them
beyond what many other sciences do.
Selected examples from medicine, homeland security, industry, computing, science, and workforce development
illustrate a long and growing list of beneficial practical applications with contributions from particle physics.
Medicine
Particle accelerators and detectors first developed for particle physics are now used by every major medical center in the nation to treat and diagnose millions of patients.
Homeland security
From scanning cargo in ports to monitoring nuclear waste, the same advanced detector technology that physicists use to analyze particles can also better protect the nation.
Industry
Particle physicists rely on industry to produce and advance the millions of components that experiments require, putting companies on a fast-track towards new products and life-changing technologies.
Computing
To record and analyze the unprecedented volumes of data generated in particle collisions, particle physicists develop cutting-edge computing technology, making key contributions to solutions at the frontiers of computer science.
Sciences
Particle physicists need cutting-edge tools; many of these, such as the synchrotron light source, benefit other areas of science.
Workforce Development
The majority of students who gain their PhDs in particle physics go on to work for high-tech industry,financial institutions and information technology businesses.
A Growing List
The science and technology of particle physics have transformational applications for many other areas of benefit to the nation's well-being.
New Precise Calculation of Nuclear Beta Decays Paves the Way to Uncover Physics Beyond the Standard Model
Theorists identify new effects needed to compute the nuclear beta decay rate with a precision of a few parts in ten thousand.
Belle II Detector Produces World’s Most Precise Measurements of Subatomic Particle Lifetimes
Particle lifetime measurements with early data from the Belle II experiment at the SuperKEKB accelerator demonstrate the experiment’s high precision.
Contact High Energy Physics
Address
U.S. Department of Energy
SC-25/Germantown Building
1000 Independence Ave., SW
Washington, DC 20585
Phone
Tel(301) 903-3624
Fax(301) 903-2597
Send us a message
sc.hep@science.doe.gov
Read more about
Top
Leaving Office of Science
The link you have requested will take you to a website outside the Office of Science.
Please click the following link to continue:
Thank you for visiting our site. We hope your visit was informative and enjoyable.
sub nav