ANL is a multi-disciplinary R&D facility capable of conducting both
large- and small-scale projects. Its wide ranging scientific and
technical expertise often is called on to attack challenges ranging from
nuclear non-proliferation to industrial technologies to basic research.
The 4,800-member Lab staff aggressively pursues collaborative,
technology-transfer partnerships with industry, university, and with
other federal labs and agencies. Among ANL's core competencies are:
- Large Accelerator based User Facilities: Design,
team-building, construction, and operation of large accelerator-based
user facilities, with emphasis on involving the user community in the
total process -- such Lab-user partnerships often are guided by boards
made up of members of industry, academia, and government.
- Nuclear Reactor Technology: ANL is the only U.S.
publicly funded institution with comprehensive skill in design and
operation of nuclear reactors and related fuel cycle facilities. This
competency is supports the development of reactor and fuel cycle
technologies, safety engineering, design of reduced enrichment fuels,
and operation and training for reactors overseas.
- Environmental Science and Technology: Programs are
devoted to R&D on advanced characterization and remediation
technologies, and substantial work supporting site clean up for the DOE
complex. ANL partners with Midwest manufacturers to address
environmental issues, waste minimization, energy storage, and
transportation technologies. ANL also is a full member in the national
multilaboratory partnerships with the automotive and textile industries.
- Materials Research / Superconductivity: ANL hosts the
largest federally funded materials research program insuperconductivity.
As one of three DOE pilot centers for the
commercialization of superconductivity, ANL conducts extensive research
with industry, focusing on components for electric power systems.
Argonne's world class user facilities include the:
- Advanced Photon Source,
- Intense Pulsed Neutron Source,
- Argonne Tandem Linear Accelerator System,
- Structural Biology Center, and
- High Performance Computing Research Facility.
BNL was founded in 1946 by nine Eastern universities which needed a
convenient user facility where projects too large for any one of them
could be built and operated. The Lab and its 3,500-member staff have
been fulfilling that need ever since. BNL conducts basic and applied
research on problems ranging from the top quark to superconductivity and
from global change to advanced radiation therapy. BNL's major
facilities and their competencies are:
Alternating Gradient Synchrotron (AGS): The AGS is a proton and heavy ion
synchrotron with a maximum energy of 33 GeV and the highest flux of any accelerator
of this energy. Three Nobel prizes, the discovery of CP violation in K decays, the
discovery of the muon neutrino, and the discovery of the J/psi particle were awarded
for work done at the AGS. A fourth, for the suggestion of parity violation, was made
for work carried out at AGS during 1956.
- Relativistic Heavy Ion Collider (RHIC): RHIC is a storage ring in
which counter rotating beams of heavy ions, injected from the AGS, will
collide and produce the density and temperature of nuclear matter
characteristic of the early stages of the universe. It will be ready
for experiments in 1999.
- High Flux Beam Reactor (HFBR): The HFBR is a 60 Megawatt reactor
designed to maximize the flux of neutrons for neutron scattering
experiments, mostly in condensed matter. Neutrons are a unique,
nondestructive tool for probing magnetic materials, crystal structure of
materials containing light elements, vibrational modes in solids, and
the interior of solids. There are more than 270 users of the HFBR in
areas such as condensed matter physics, biology, chemistry, applied
science, and industrial applications.
- National Synchrotron Light Source (NSLS): NSLS is two electron
storage rings which provide X Ray, ultraviolet, and infra red beams for
research in materials science, biology, chemistry, medical, and
industrial applications. There are over 3400 users, including
scientists from universities, industry, and other government
laboratories.
Other facilities include the Positron Emission Tomograph (PET) which uses
positron decays to produce images of the brain, and STEM, a scanning
transmission electron microscope which is unique in its capabilities.
These facilities are used not only by outside users but also by BNL
researchers.
INEL includes more than 890 square miles of remote, accessible terrain,
well-suited for development, demonstration and operation of complex
processes. The Lab's 7,400-member staff represents the largest
concentration of technical professionals in the region. INEL is
recognized internationally for integration of engineering, applied
science and operations to meet critical needs associated with energy
supply, environmental management, national security and advanced
technology development and demonstration. INEL's core competencies are:
- Systems Integration and Engineering: INEL discerns the future
impacts, requirements, and potential problems associated with each of
its major programs. The Lab's demonstrated skill in this are has
resulted in more than 45 years of safe, environmentally conscious and
cost effective operations. INEL has developed and operated 52 unique
nuclear reactors, and contributed extensively to the safe applications
of this technology in both the commercial power and national security
sectors.
- Complex Process Development, Demonstration, and Operation: INEL
efficiently move technical ideas from concept to operational status. A
wide variety of prototype development and demonstration projects in
support of environmental technology applications, renewable and
alternative energy systems, advanced transportation concepts, advanced
manufacturing methods, and non-proliferation technology applications
have been successfully undertaken. Applying this core competency is
evidenced by the successful operation of (a) major test reactors,
including the Advanced Test Reactor, (b) chemical processing facilities,
such as the Idaho Chemical Processing Plant, (c) manufacturing
facilities, such as the Specific Manufacturing Capability Facility, and
(d) commercial processes, such as automated welding. Capabilities
required to design, construct, integrate, and operate such facilities
are unique within the DOE complex, because of the breath of applications
and the magnitude and complexity of facilities. INEL infrastructure,
project management skills, systems integration, and engineering support
provide the necessary ingredients for new and expanded missions in this
area.
- Environmental Technology Development and Waste Management: INEL has
pioneered in developing and providing methods for characterizing,
treating and storing radioactive and hazardous waste, including
high- and low-level waste treatment technologies. INEL's leadership in
environmental technology and waste management result from a unique
integration of capabilities including remote handling, biological and
chemical processing, instrumentation and sensors, and earth and
environmental sciences. INEL's competencies in systems integration and
engineering, and in complex process development, have provided the
foundation for meeting all environmental-related "records of decision"
and supporting milestones on schedule, while maintaining the lowest cost
in the laboratory system.
INEL is marked by an emphasis on applied science and engineering to
bridge the gap between basic research and practical application, culture
oriented toward providing maximum value to customers, proven ability to
leverage environmental capability to regional natural resource
industries, and unique infrastructure enabling a full range of design,
development, demonstration and operations.
In addition, INEL continues to cost effectively leverage limited programmatic
resources through a variety of partnership arrangements to facilitate
transfer of technology to the private sector.
LBL's dedication to scientific excellence has garnered a host of
awards -- including nine Nobel prizes. Its close connection with the
University of California at Berkeley permits the lab and its
2,700-member staff to be especially aggressive in educating future
scientists and engineers as well as improving the quality of K-12
science education. LBL core competencies include:
- Advanced Materials, Synthesis, Characterization and
Processing: Fundamental research here led to the development of
detectors based on high-temperature superconducting materials, advances
in nuclear magnetic resonance, nanoscale materials for energy
applications, basic knowledge of chemical reactions in combustion, and
surface-science research.
- Advanced Computing, Modeling and Simulation:
Activities include programs in three gigabit network testbeds;
developing systems such as digital video analysis; research on
economical paths to high-volume, high-speed data storage; and
Internet-based multimedia applications for worldwide
network-independent teleconferencing.
- Advanced Manufacturing and Process Technology: LBL
leads the Automation Technical Area within AMTEX, a partnership with the
integrated U.S. textile industry. Other programs involve advanced
lithography, and micro-electromechanical systems which apply processing
techniques developed for semiconductors to the design of microscopic
sensors, actuators, and motors
- Biosciences and Biotechnology: Activities include the
rational design of pharmaceuticals; research on coronary artery disease;
the biology of breast cancer; advanced imaging techniques like tritium
NMR, high-resolution positron emission tomography, and
radiopharmaceutical chemistry; transgenic mouse facility for testing
atherosclerosis treatments and for on-going clinical hereditary studies;
genomic DNA sequencing supported by development of automated
instrumentation; lipoprotein and atherosclerosis research program; and
a hematopoiesis program.
- Nuclear Science and Technology / High-Energy and Nuclear
Physics: LBL supports research in the nuclear and chemical
properties of the heaviest elements; leadership in the STAR experiment
at Brookhaven's Relativistic Heavy Ion Collider; participation at
Fermilab includes CDF and D0 detector collaborations; originating the
technical basis and now partners in the B-Factory at SLAC; astrophysics
programs including a search for distant supernovae, direct detection of
dark matter, investigations of the cosmic microwave background and the
Sudbury Neutrino Observatory. This research is supported and
complemented by premier programs in designing and building particle
detectors and in many areas of accelerator physics and technology,
including design and analysis, superconducting materials and magnets,
and beam electrodynamics.
- Advanced Energy Technologies & End-Use Applications:
Programs include development of inertial-confinement fusion energy; gas
and oil recovery and geothermal resources; energy efficiency; and
creation of technologies, processes, and analytical methods in building
technology, transportation, utilities, industry, and policy development.
- Environmental Science & Remediation Technology: LBL
research is aimed at understanding the formation, transport,
transformation, mitigation, and ecological effects of pollutants on the
environment including research in fractured porous systems such as soil
and rock; advanced site-characterization, remediation, and separation
methods for use at contaminated sites or sites with special geologic
interest; subsurface barrier technology; methods for removing and
recovering toxic metals from aqueous waste streams; hazards of the
indoor environment including radon and other indoor air pollutants;
research on climate change; and fundamental actinide chemistry and
processes that impact environmental remediation and restoration.
Among LBL national research facilities are:
- The Advanced Light Source,
- The 88-Inch Cyclotron,
- The National Center for Electron Microscopy, and
- The National Tritium Labeling Facility.
LLNL and its 7,900-member staff focus their efforts on global security,
global ecology, and bioscience. LLNL offers a demonstrated ability to
apply science and technology effectively on a large scale, thanks to a
broad culture of diverse disciplines and well-developed links to
industry and the university R&D communities. Core competencies and
characteristics include:
- Nuclear Science: LLNL is one of two nuclear weapon
design laboratories and has applied this knowledge to fusion and nuclear
energy, atomic (x ray) and nuclear physics, and astrophysics. The Lab
serves as an expert resource on international nuclear weapon and nuclear
materials issues.
- Computation: LLNL operates several supercomputer
centers, including the DOE's national supercomputer center and network,
and the national information storage laboratory. The Lab deployed the
first machines of many generations of new computers; developed
scientific computation, operating, and system control languages;
pioneered time sharing and network management; and is engaged in the
national effort to develop massively parallel computational
capabilities.
- Lasers: The LLNL world-leading laser program is very
directed, developing lasers which have specific applications -- adding
to the national capability in glass lasers, metal vapor and dye lasers,
and now solid state diode lasers. The Lab has adapted these
technologies to astronomy, satellite systems, biology, and advanced
manufacturing.
- Instrumentation and Sensors: Instrumentation and
sensor capabilities derive initially from the critical and demanding
needs of weapons testing. The requirements for laser, biology,
environment, and energy systems and for precision engineering have
further evolved this capability.
- Bioscience: LLNL, one of the three DOE centers for the
study of the human genome, has mapped most of chromosome 19 with
sequenced, cloned DNA fragments and has helped locate 170 genes, 3
repair genes, and many biological functions and pathologies associated
with this chromosome. In addition, Livermore is developing bioscience
applications for healthcare, environmental cleanup, and energy
conversion.
- Materials and Processing: LLNL developed materials
that are the lightest known solids, best thermal and electrical
insulators, and with the highest toughness-to-weight ratio; fabricated
materials an atomic layer at a time; built microstructures and
micromachines; and, in collaboration with Russian scientists, increased
the growth rate of optics crystals by 100 times. The Lab developed and
uranium laser isotope separation (AVLIS); this is the nation's largest
and most complex process technology transfer.
Among unique facilities at LLNL are the National Energy Research
Supercomputer Center (NERSC); the world's most powerful laser (Nova);
the laser isotope separation demonstration facility (AVLIS); the best
instrumented hydrodynamics test facility (FXR); the country's most
advanced energetic materials research facility (HEAF); the most precise
diamond turning machine (LODTM) which cut metal mirrors for the Keck
telescope; the electron beam ion trap (EBIT) capable of studying atomic
structure of any element at extremely deep ionization levels; the
nation's most productive and diverse center for accelerator mass
spectrometry (CAMS); the nation's atmospheric release advisory
capability (ARAC) which analyzed Chernobyl in real time; the national
center for global climate model comparison; the genome research center;
and environmental technology demonstration facilities for dynamic
underground stripping, for groundwater cleanup, and for mixed waste
treatment.
NREL has a compelling mission: "[to lead] the nation toward a
sustainable energy future by developing renewable energy technologies,
improving energy efficiency, advancing related science and engineering,
and facilitating commercialization." Further, NREL is the only DOE
Laboratory solely dedicated to developing renewable energy technologies
(RETs) and related energy efficiency technologies, which includes
helping to build a viable industry. NREL's current technical staff of
more than 500 represents the largest concentration of expertise focused
on renewable energy technologies in the world. This highly trained
staff is further augmented by unique experimental and user facilities.
To help meet its challenging mission, NREL carries out its activities
using a process called vertically integrated research and development
(R&D) and partnership development by working closely and in parallel
with industry, university, and national lab partners, as well as other
stakeholders, to evolve and develop technology of commercial interest
through all its stages -- from basic research through applied research,
engineering, product development, manufacturing support and, finally, in
a supporting role, commercialization. These efforts rely heavily on
four core competencies:
- Advanced Materials and Prototype Component
Development
- Development and Characterization of Renewable Energy, Energy Efficiency, and
Waste Conversion Processes
- Systems and Process Engineering and Integration for Renewable Energy and
Energy Efficiency
- Establishing Partnerships for Market and Technology Development for Renewables
and Energy Efficiency
In addition, as part of this vertically integrated process NREL, guided
by a number of review and advisory boards made up of members of
industry, academia, users, and institutions:
- Serves as the focal point for planning and implementing the federal RET R&D
program in industry and universities;
- Technically evaluates and plans projects for the deployment of RETs
and carries out DOE-assigned program management;
- Serves as the "corporate memory" to assure that lessons learned are applied to
the next generation of RET projects;
- Develops collaborative relationships with research institutes abroad, leading to a
better understanding of, and familiarity with, U.S. manufacturers and products;
- Transfers RET and related technology from the Laboratory to U.S. industry;
and
- Provides scientific and technical information on a wide range of RETs to other
agencies and industry.
LANL is a world class laboratory which attracts and retains a high
caliber staff of 7,600. The Lab also continually draws internationally
renowned scientists, both foreign and domestic, from universities,
industry, and government-funded laboratories. LANL competencies and
distinguishing characteristics include:
- Nuclear Weapons and Materials: LANL has exceptional
broad capabilities, with several unique facilities including the
Plutonium Facility, the Chemistry and Metallurgy Research Building, and
the Critical Experiments Facility. They permit research, development,
and demonstration of process technology, fabrication, safety and
criticality studies, and waste treatment. Explosive and energetic
materials capabilities extend from synthesis and characterization to
pilot scale production to machining and fabrication to engineering and
testing. Flash x ray capabilities allow imaging of dynamic events.
- Scientific Computing: LANL has one of the two largest
capabilities in this area, a capacity that allows the Lab a leadership
role in addressing some of the nations grand challenges. An example is
development of the parallel ocean model, a program that received the
Computerworld Smithsonian Award for technical excellence in the science
category. LANL is the site of one of two DOE High Performance Computing
Centers, and supports the Computational Testbed for Industry, as well as
the Los Alamos Neutron Scattering Center (LANSCE), a pulsed neutron
source with a large and vigorous user community. Research activities
cover the spectrum from materials studies to structural biology, and
LANSCE is expected to play a key role in the proposed nuclear weapons
stewardship initiative.
- Sensors and Diagnostics: LANL is a leader in
developing techniques for capturing transient signals under extremes of
temperature and pressure. Sensors and diagnostics have been deployed in
environments from subsurface to oceans to space. These capabilities
play an important role in the growing area of non and
counterproliferation, a national program in which LANL is a leader.
- Biology: LANL has one of three DOE Centers for Human
Genome Studies, which has earned international stature deriving largely
from the interface that has been achieved between researchers in biology
and those from the physical sciences, computation, and the engineering
sciences.
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