brookhaven national laboratory overview - asertti · brookhaven national laboratory ... to be the...
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Brookhaven Lab at a glance Brookhaven National Laboratory -- founded in 1947
~2980 employees
>4000 scientific facility users annually
S&T Portfolio
• Photon Sciences
• Nuclear & Particle Physics
• Energy & Climate Sciences- Physical Science
- Applied Science
- Nanoscience
- Life Sciences
- Environmental Science
• National Security
Seven Nobel Prizes garnered
• 12 Scientists honored (users & staff)
• First in 1957, latest in 2009
FY09 New Funding
$610M (Ops & Constr.)
$231M (ARRA Ops & Constr.)
$841M (Total)~3/4 from Department of Energy (DOE) Office
of Science
High Energy Physics 9%
Nuclear Physics
31%
Biological & Environmental Research
4%
Basic Energy Sciences 26%
Safeguards &Security 2%
Other Office of Science 2%
EnvironmentalManagement 3%
National Nuclear Security Administration 8%
Other DOE3%
Work forOthers 12%
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Mission
Strategy
To be the provider of choice for world-class science and facilities in support of the DOE Office of Science’s mission to enable breakthroughs that ensure our Nation's future
Vision
Advance photon sciences, energy, and environment-related research and
apply them to 21st Century problems of critical importance to the Nation
Advance fundamental research in nuclear and particle physics to gain a deeper
understanding of matter, energy, space, and time
Position BNL’s two largest user facilities – National Synchrotron Light Source
(NSLS) and Relativistic Heavy Ion Collider (RHIC) – for continued leadership
roles
Focus on five Major Activities built on Core Capabilities
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Relativistic Heavy Ion Collider (RHIC)
Since 2000, exploring new
frontiers in the fundamental
structure of matter
• World-wide collaboration of 1000-plus
scientists, engineers and students
The nature of the Universe at the
birth of protons and neutrons
• A 4-trillion °C “Perfect Liquid”
composed of quarks and gluons!
• •Exotic antimatter and hints of
broken symmetry
Future upgrades: RHIC II (now),
eRHIC
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National Synchrotron Light Source (NSLS)
Crucial resource for the Northeast• 2,200 users in FY 2009
• 400 institutions - academic, industrial, government
• > 950 publications in FY 2009
• ~ 20% in premier journals
Vital for diversity of programs
• Chemistry, physics, nanoscience, energy science, structural biology, environment and other BNL facilities
• The Nobel Prize in Chemistry has been awarded twice based on NSLS research (2003 & 2009)
What’s next: NSLS-II
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NSLS-II: Enabling a Nanoscience Revolution World’s brightest light source
• 10,000 brighter than NSLS
• 1 nanometer resolution
• Synergy with Center for Functional Nanomaterials
- Characterization of new materials, reactions, processes
- Energy focus
$912M total project cost
• $150M Recovery Act funding
• Economic stimulus, jobs
• June 2009 groundbreaking
• Operations in FY15
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Center for Functional Nanomaterials
Mission: To develop and share materials and processes at the nano-scale to address the nation’s critical needs• User-oriented facility
• Focused on energy
• Offers materials preparation, characterization, theory and development of new techniques
Science Themes• Electronic nanomaterials
• Soft/Bio nanomaterials
• Interface science/catalysis
Facts• Full operations began May `08
• 50-60 staff
• Over 200 users in FY2009 with substantial growth expected
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Brookhaven’s Strategic Energy Plan
BNL Initiatives- Correlated Electron Materials: Grid
- Materials for Catalysis
- Solar Nano-materials
- Energy Storage Materials
BNL Energy Vision: effective use of renewable energy through
improved conversion, transmission, and storage
Energy Strategy Materials Focus
CFN/Nanoscience
NSLS II
New York Blue
Core
Programs
Collaborators/Joint Appointments
Aligned with DOE PRDs/Grand Challenges
BNL participation in 4 EFRCs
Discovery to Deployment
Complex / Correlated Electron Materials
Extreme physical behavior
Cu : High-Tc Superconductivity
Mn: Colossal Magneto-Resistance
Co: Giant Thermopower
Ti: Giant K, Ferroelectrics
Key Scientific Issues:
Inhomogeneities and Competing Orders
Low Dimensional Phenomena
HTS Pairing Mechanism
Quantum Criticality
Synthesis
Characterization Theory
Complex Unit Cells
Strong Electronic Correlations
- emergent behavior
Synthesis frontier:
50,000 ternary oxides
2,000,000 quaternary oxides
BNL Synthesis Capabilities
MBE Bozovic 2003
Exploratory Synthesis
Petrovic 2002
Single Crystal Growth
Genda Gu 2001PLD Weidong Si 2000
Intermetallics
Meigan Aronson 2007
Nanomaterials
Stan Wong 2000
Complex Materials: Discovery to deployment
Interface Superconductivity• Superconductivity at an interface between
two materials that are NOT superconducting
American Superconductor: CRADA
Licensing BNL Technology for Gen 2 wires
M-I bilayer
metal
insulator
Temperature [oK]
Resis
tance [O
hm
]
Bozovic et al., Nature (accepted)
Superconducting Cables• Increasing the capacity of the grid
LIPA Installing longest HTS
cable in live grid!
American Superconductor
Materials for Catalysis: Pt Monolayer Fuel Cell Electrocatalysts
Advance: nanostructured electrocatalysts reduce barriers to fuel cell use:
• Ultra low Pt content – reduce fuel cell cost
• Improved activity– higher efficiency Several types of O2 Reduction Electrocatalysts
Pt on Pd or Pd alloy nanoparticles
Mixed-metal Pt on Pd nanoparticles
Pt on non-noble metal – noble metal core-shell
Pt monolayer-equivalent clusters on NbO2
Pt ML on Pd interlayer on Pd or Alloy NPs
Pt
Pd
Pt/Pd
fuel cell
tests
3000 hrs
H2/air
PIs: Adzic, with Sasaki, Vukmirovic, Wang
Electrochim. Acta 52, 2257 (2007)
Angew. Chem. Int. Ed. 44, 2132 (2005)
J Phys. Chem. B 109, 22701 (2005)
Atomic scale chemical imaging CFN STEM Facility
Z=78
Z=46
b
Intensity profiles from scans (a); best fits (b) to structure models
points exp., black with Pt ML, pink with Pd ML, green: core only
Pt ML
on
Pd NP
Pt
Pd
Ir
Pt and PGM mass activities:
1.2 A/mgPt at 0.90 V;
0.35 A/mgPGM at 0.90 VDOE Target 2015: 0.45 A/mgPGM
Synthesis scale-up milestone achieved: 2-5 g in one batch
Several promising fuel cell tests in industrial labs
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Mission: to bridge the gap from discovery to deployment
Major Research Areas:
Superconducting Materials Grid Cables
Thermoelectric Materials Heat Recovery
Nanomaterials Science Photovoltaics
In-situ Battery Materials Grid Storage
Supported by real world connections
Alternative Energy R&D
LIPA Installing longest
HTS cable in live grid!
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Environmental & Life Sciences
What will be the extent and the effects of rising
temperature, CO2, methane, and ozone on
natural ecosystems?
Climate Science – cloud & aerosol science
Plant Biology – imaging, microbial and plant
genetics, improving food and fuel crops, FACE
technology
Computation – climate modeling
Leverages NYCCS, NSLS, NSLS-II and CFN
Integrates core capabilities to study and provide
solutions to impacts of climate change
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National Security and Nonproliferation – DOE Programs
Nuclear Detector Materials
Research - NA-22
Radiological Assistance Program
RAP Region 1, “Boots on the
Ground” Deployments – NA-42
Nuclear Safeguards - Securing
Nuclear Materials Worldwide -
NA-24
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Translational Biomedical Imaging
Three core elements
Radiotracers (developed at BNL)
Clinical and preclinical
neuroscience
Physical sciences
and instrumentation
Notable accomplishments
Neurochemistry of addiction/obesity
Advances in treatment
Noninvasive awake-animal imaging
3-D atlas of mouse brain
Important part of the portfolio
Needs broader support base
and new partnerships
Digital rendering of mouse brain
Instrumentation for preclinical and clinical
neuroimaging
Depleted dopamine activity across drugs and in obesity
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Physics of the Universe
BNL research aligned with national strategy
• Energy, intensity, and cosmology frontiers
Leading role in ATLAS detector and dark matter candidate particle search
Major U.S. partner in Daya Bay experiment
Developed US approach to very long baseline n oscillations (Fermilab to DUSEL)
• Key role in detector design and construction
• Search for CP violation in neutrino sector, possibly associated with matter-antimatter asymmetry
Key role in LSST (Gen-4 Dark Energy exp.)
• 3 GigaPixel focal plane detector camera
Advanced accelerator R&D (n factory/m collider) for next-generation energy frontier facility
BNL Impacts: Future Vehicle Fleet
Lithium Ion Battery Pack
improved electrodes and
electrolytes
Hydrogen Storage
understanding of alanate
storage
mechanisms/catalysis
Thermoelectric heat recovery
nanostructured high
thermopower materials
Fuel cell catalysts
stable nanocatalysts with
high activity, low loading
Direct ethanol fuel cells
nanocatalysts for C-C bond
breaking
Biodiesel
Efficient plant/produce
engineering
Superconductors
Reliable grid to bring
power to charge
batteries for plug in
hybrids
Largest user of petroleum is transportation (drives fuel switching)
Energy lost is greater than energy used (drives efficiency, recovery and storage)
Hydrogen Hybrid Electric…
BNL Impacts: Future Office Building
Office buildings consume the most energy of all building types:
19 percent of all commercial energy consumption
Superconducting Grid
Elements
Reliable grid to bring power
to building
More efficient transformers
Superconducting
Electronics
Power electronics
Solar Energy Conversion
Photovoltaics/solar thermal
panels
Solid-state lighting
High efficiency, high
color quality Biofuels
Biofuels replace
imported petroleum
Biofuels
Efficient combustion