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Sanford Underground Research Facility (SURF), Lead, South Dakota

The LUX-ZEPLIN (LZ) experiment utilizes 7 tonnes of active liquid xenon to search for xenon nuclei that recoil in response to collisions caused by an impinging flux of dark matter particles known as WIMPs (Weakly Interacting Massive Particles).  The experiment will be located nearly 1 mile underground in the Sanford Underground Research Facility (SURF) in Lead, South Dakota. The active liquid xenon is configured in a cylinder 1.5 meters in diameter and height, with an applied electric field to form a TPC (Time Projection Chamber).



High voltage pulsers are required to drive fast kicker magnets which will inject and extract beam to and from the ALS-U storage ring. This inductive voltage adder with MOSFET's produces fast rise and fall times on the voltage pulses that are required so that only the target bunches are deflected.

Advanced Light Source (ALS), Lawrence Berkeley National Laboratory, Berkeley, CA

ALS-U is a planned upgrade of the Advanced Light Source (ALS) at Berkeley Lab that will provide revolutionary x-ray capabilities. The ALS has been a global leader in soft x-ray science for more than two decades. Recent accelerator physics breakthroughs now enable the production of highly focused beams of soft x-ray light that are up to 1000 times brighter than that of the existing ALS. Applying this technology at the ALS will help us to better understand and develop the new materials and chemical systems needed to advance our energy, economic, and national security needs in the 21st century, securing the United States’ world scientific leadership for decades to come.


STAR Heavy Flavor Tracker

STAR Heavy Flavor Tracker

Brookhaven National Laboratory, Upton, NY

The Heavy Flavor Tracker (HFT) is a vertex detector which is part of the STAR (Solenoid Tracker at RHIC) detector located at the RHIC (Relativistic Heavy Ion Collider) accelerator. The HFT detector is designed to detect particles containing heavy quarks by measuring their extremely short decay vertexes. It consists of 4 silicon detection layers; the inner two layers are PXL, followed by IST and SSD as the outer layer. PXL uses novel pixilated sensors with high resolution and low mass that achieve breakthrough performance results. IST and SSD are used to point the tracks between PXL and the STAR TPC (Time Projection Chamber). Scientists and engineers at Berkeley Lab have played a major role in the design of both PXL and SSD.


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Pictured: Berkeley Lab Engineers, Thorsten Stezelberger and Luis Ardila-Perez

Photo Credit: Jim Thomas, SSD subsystem manager

ABPDU Advanced Technologies

ABPDU Bioreactor

Advanced Biofuels Process Demonstration Unit (ABPDU) – Lawrence Berkeley National Laboratory, Emeryville, CA

ABPDU enables early stage advanced biofuels, biomaterials, and biochemicals product and process technologies to successfully scale from the lab to commercial relevance. The facilities at ABPDU are constantly adapted and new process algorithms developed to support various client and project requirements. The Engineering Division manages a number of electronic and mechanical engineering endeavors including developing and maintaining data and control systems, designing automation, monitoring environmental compliance, and modifying custom equipment (i.e., fermenters and biological reactors) to perform specialized processes. The advanced customization engineered at the ABPDU enables the program to offer unique capabilities for advanced research in bioproduction.

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ALS qRIXS Endstation

ALS qRIXS Endstation

Advanced Light Source – Lawrence Berkeley National Laboratory, Berkeley, CA

qRIXS is a novel endstation for momentum-resolved resonant inelastic x-ray spectroscopy studies the elementary excitations in three-dimensional correlated materials. The spectrometer covers a large energy range in the soft x-ray regime and is designed to be compact and flexible. It can accommodate up to five modular spectrometers to cover a large horizontal angular range simultaneously. Berkeley Lab Engineering Division designed and fabricated the endstation.

ALS MAESTRO Beamline 7.0.2

ALS MAESTRO Beamline 7.0.2

Advanced Light Source – Lawrence Berkeley National Laboratory, Berkeley, CA

MAESTRO at 7.0.2 is a beamline at the Advanced Light Source that advances angle-resolved photoemission spectroscopy for the study of electronic structure on the mesoscale regime, covering a photon energy range of 20-1000 eV with a resolving power of 20,000-30,000. The beamline is coupled to unique sample preparation and characterization facilities connecting all of the endstations. Berkeley Lab Engineering designed, built and installed the beamline and insertion device.


Linac Coherent Light Source II (LCLS-II) – SLAC National Accelerator Laboratory Stanford University, Menlo Park, CA

LCLS-II is the upgrade of the Linac Coherent Light Source (LCLS) national user facility. LCLS is a powerful x-ray laser that enables exploration of atomic motion and changes in chemical bonds. The upgrade will add two new X-ray laser beams and expand the capacity for more instruments and research experiments. Berkeley Lab is leading the design and production of the injectors and undulators for the facility upgrade.



Lawrence Berkeley National Laboratory, Berkeley, CA
Berkeley Lab Laser Accelerator (BeLLA) is a world-record-setting laser system and state-of-the-art scientific facility for the advancement of laser plasma acceleration research. In 2014, the project won a DOE Secretary’s Achievement Award “for outstanding ingenuity and exceptional project performance.” The Engineering Division was responsible for the project management and all of the opto-mechanical systems, electrical and controls systems, and the site and systems integration of the BeLLA project.

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ALS Cosmics Scattering Endstation

Cosmics Scattering Endstation

Advanced Light Source – Lawrence Berkeley National Laboratory, Berkeley, CA

The COSMIC Scattering Endstation is an endstation focusing on understanding the nanoscale organization of complex materials using coherent soft x-ray scattering techniques. It is installed at one of two branches on the Coherent Scattering and Diffraction Microscopy (COSMIC) beamline. Berkeley Lab designed and fabricated the endstation.