Supporting Berkeley Lab’s mission of bringing science solutions to the world, the PMO partners with science and engineering project teams to meet project management challenges. Major science projects currently under the PMO’s purview represent next generation technology, complex experimental instruments, and facility upgrades.
Advanced Light Source Upgrade: The ALS-U (Advanced Light Source Upgrade) Project is an ongoing upgrade of Berkeley Lab’s synchrotron x-ray light source that will leverage new accelerator technologies to endow the user facility with revolutionary capabilities. The Project will utilize most of the existing ALS systems and infrastructure, and planned improvements will create a world-leading soft x-ray facility that will help us better understand and develop new materials and chemical systems.
ATLAS Detector Upgrade Phase 2: ATLAS is one of two general purpose magnetic spectrometers at the LHC (Large Hadron Collider) at CERN and will be upgraded for high luminosity by 2025. The US effort is managed by BNL, and LBNL has responsibility for portions of three tracking subsystems on this project: strip detector, pixel detector, and global mechanics.
DUNE-ND: How does the universe work and how do we live in a matter-dominated universe? The Deep Underground Neutrino Experiment (DUNE) being built at the Long-Baseline Neutrino Facility (LBNF) in South Dakota will allow scientists to study the properties of mysterious particles called neutrinos and offer clues as to how the universe works and why matter exists at all.
LBNL is one of 175 international institutions collaborating to build this experiment and will focus on the near detector (DUNE-ND) portion of the project, which will live 60 meters (200 feet) underground at the experiment’s near site, Fermilab in Batavia, Illinois.
GRETA: The 4π γ-ray tracking array GRETA (Gamma-Ray Energy Tracking Array) will be a powerful instrument needed to accomplish a broad range of experiments that will play an essential role in addressing the intellectual challenges of low-energy nuclear science. GRETA marks a major advance in the development of γ-ray detector systems and can provide order-of-magnitude gains in sensitivity compared to existing arrays. It uses highly-segmented hyper-pure germanium crystals together with advanced signal processing techniques to determine the location and energy of individual γ-ray interactions, which are then combined to reconstruct the incident γ-ray in a process called tracking.
High-Luminosity Large Hadron Collider Accelerator Upgrade: The High-Luminosity Large Hadron Collider Accelerator Upgrade Project (HL-LHC AUP) at CERN promises to boost the the beam’s luminosity and rate of particle collisions allowing LHC users the opportunity to explore the Standard Model of Particles and Interactions in greater detail and search for new physics within the LHC’s energy reach. LBNL is working on this project with other DOE National laboratories and is responsible for fabricating and insulating Rutherford-style cables, procuring the magnet structures, and the assembly of the quadrupole magnets.
HPDF: The High Performance Data Facility (HPDF) will be a first-of-its-kind DOE Office of Science user facility that will enable and accelerate scientific discovery by providing state-of-the-art data management infrastructure, capabilities, and tools. The HPDF Project is led by Jefferson Lab in partnership with Berkeley Lab. The HPDF Project will make it easier for scientists to access and build upon existing data, driving next generation AI-driven and data-intensive scientific discoveries
Under the HPDF Project, HPDF Hubs will be deployed at Jefferson Lab and LBNL and will be a cutting-edge data platform providing advanced storage, processing, and analytical services. Additionally, data center space at Jefferson Lab and Berkeley Lab will be built to house hardware that will support the data platform software and services. By providing a robust and scalable infrastructure, HPDF will help researchers overcome current data management challenges.
Linac Coherent Light Source II High Energy (LCLS-II HE): LBNL is collaborating on the LCLS-II HE project at SLAC National Accelerator Laboratory, anticipated to be a significant step in the evolution of X-ray lasers and the next logical extension to LCLS-II. The LCLS-II-HE upgrade is projected to deliver two to three orders of magnitude increase in average spectral brightness beyond any proposed or envisioned diffraction-limited storage ring (DLSR) and open new areas of science for time-resolved studies. The upgrade will better assist atomic-scale studies, and its ability to probe Earth-abundant elements and access experimental regimes central to biological structure determination and quantum materials studies will provide a fundamentally new capability for discovery science.
NERSC-10: NERSC supports the entire spectrum of DOE open science computational workload serving over 8,000 scientists, on about 800 projects utilizing over 700 discrete applications. NERSC’s mission is to accelerate scientific discovery through high performance computing and data analysis for unclassified DOE Office of Science sponsored research.
As NERSC’s next High Performance Computing (HPC) system, it will meet the needs of both extreme-scale computing and users from experimental facilities by accelerating workflow performance. NERSC-10 will integrate the capabilities of simulations and modeling, and advances in artificial intelligence (AI), while supporting ever expanding experimental data.
NSRC-Recap: The DOE Nanoscale Science Research Centers Recapitalization project will modernize nanoscale infrastructure at 5 National Labs, including Berkeley Lab’s Molecular Foundry. The upgrades will focus on 3 key areas: expanding the limits of nanofabrication, accelerating nanoscale materials and design, and decoding nanoscale dynamics and heterogeneity.
