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Future particle colliders will need strong magnets to steer high-energy particle beams as they travel close to the speed of light on their circular path. A group at Fermilab has achieved a record field strength of 14.1 teslas for a particle accelerator steering magnet, breaking the 11-year record.
Engineers at Fermilab have shown that sometimes, to reshape the metal heart of a particle accelerator, what you need is a balloon. The new, patented technique is a novel solution to a problem that affects an essential component of accelerators: superconducting cavities.
The first major superconducting section of the PIP-II accelerator has come to Fermilab: the first of 23 cryomodules for the future accelerator. The cryomodules’ job is to get the lab’s powerful proton beam up and moving, sending it to higher and higher energies, approaching the speed of light. This first cryomodule also represents a successful joint effort between Argonne National Laboratory and Fermilab to design and produce a critical accelerator component for the future heart of Fermilab.
Three United States DOE national laboratories – SLAC, Fermilab and Jefferson Lab – have partnered to build an advanced particle accelerator that will power the LCLS-II X-ray laser. Thanks to technology developed for nuclear and high-energy physics, the new X-ray laser will produce a nearly continuous wave of electrons and allow scientists to peer more deeply than ever before into the building blocks of life and matter.
Particle accelerators are some of the most complicated machines in science. In today’s more autonomous era of self-driving cars and vacuuming robots, efforts are going strong to automate different aspects of the operation of accelerators, and the next generation of particle accelerators promises to be more automated than ever. Scientists are working on ways to run them with a diminishing amount of direction from humans.
Fermilab scientists are preparing for future, high-power particle beams with a technological advance inspired by spinning sugar. It’s a new type of target — the material that beams collide with to produce other particles, such as neutrinos. The target is designed to be able to withstand the heat from high-intensity beams, expanding the potential of experiments that use them. Researching this new patent-pending technology already has led to a TechConnect Innovation Award and might have applications in the medical field.
On March 15, Fermilab broke ground on PIP-II, a major new particle accelerator project at Fermilab. Dignitaries from the United States and international partners celebrated the start of the project at the groundbreaking ceremony. The PIP-II accelerator will power the long-term future of the laboratory’s research program, including the international Deep Underground Neutrino Experiment and a suite of on-site experiments.
The March 15 ceremony marks the start of work on PIP-II, a major new accelerator project at Fermilab. The PIP-II accelerator will power the long-term future of the laboratory’s research program, including the international Deep Underground Neutrino Experiment.
What if you could accelerate particles to higher energies in only a few meters? This is the alluring potential of an up-and-coming technology called plasma wakefield acceleration. Scientists around the world are testing ways to further boost the power of particle accelerators while drastically shrinking their size.
The U.S. Department of Energy has approved the scope, cost and schedule for the U.S. LHC Accelerator Upgrade Project and has given the first approval for the purchase of materials. This project brings together scientists, engineers and technicians from national laboratories — such as Fermilab, Brookhaven, Berkeley, SLAC and Jefferson labs — to develop two cutting-edge technologies to advance the future of both the Large Hadron Collider and broader collider research.