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Category: ATAP

Berkeley Lab Director’s Review of the Physics and ATAP Divisions held on May 15-17

Group Photo – 2024 Berkeley Lab Director’s Review of the Physics and ATAP Divisions – Photo by Thor Swift

Berkeley Lab hosts 2024 ATLAS Masterclass in particle physics data analysis

2024 ATLAS Masterclass - Group Photo

Toward a Transposed and Flexible Magnet Conductor Using High-Temperature Superconducting Wires for High-Field Magnet Applications

Paolo Ferracin, senior scientist and deputy of ATAP’s Superconducting Magnet Program, Hugh Higley, contractor to the program, and Xiaorong Wang, a staff scientist at SMP, analyze a sample of 6-around-1 superconducting REBCO cable. Michele Pixa/Berkeley Lab

Advanced Mathematical Modeling Promises New Magnet Design

Lucas Brouwer, research scientist in ATAP's Superconducting Magnet Program, works on a canted cosine-theta magnet design. Berkeley Lab

Ben Nachman elected to leadership position in APS Topical Group on Data Science

Photo of Ben Nachman

A trio of paths toward the discovery machine of the future

Symmetry Magazine featured graphic showing the three path options. Illustration by Sandbox Studio, Chicago with Steve Shanabruch .

Preventing Magnet Meltdowns Before They Can Start

Maxim Marchevsky (left) and Soren Prestemon discussing an experimental setup to test the sensitivity of a temperature monitoring system for a high temperature superconducting magnet. Marilyn Sargent/Berkeley Lab

The Lab’s WSEC: Inclusion, Empowerment and Opportunities

Elements photo for WSEC article: Ina Reichel (ATAP) incoming WSEC chair Vanessa Hsia-Kiung (IPO)

Career Journeys: Qing Ji

Banner Logo: Elements Career Journey's: Qing Ji

Berkeley Lab and ATAP Division Host James Logan High School

ATAP's Paulo Ferracin with HS students tour. Photo: Thor Swift

A Novel Technique for Producing Positron Beams Using Laser-Plasma Accelerators

Schematic showing an electron beam (coming from the left, in blue) hits a thick tungsten target, and e+e- pairs are generated via bremsstrahlung. A laser pulse (coming from the top) impinges on the back surface of the target and is reflected by a plasma mirror to the right, where it excites a plasma wave. Positrons exiting the target (in green) are trapped and accelerated in the wake. (Credit: Davide Terzani/Berkeley Lab)

Quantum Sensing: Shedding New Light on Dark Matter

Illustration by Olena Shmahalo for U.S. Particle Physics

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