The
Genomic Science Program is in the DOE Office of Science Biological and Environmental
Research Program.
About the DOE Biological and Environmental Research Program
Mission
Advance world-class biological and environmental research
and provide scientific user facilities to support Department of Energy missions
in scientific discovery and innovation, energy security, and environmental
responsibility.
Approach
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Understand complex biological and environmental
systems across many spatial and temporal scales.
- Leverage diverse scientific insights by coupling theory, observations,
experiments, models, and simulations.
- Support interdisciplinary research that engages scientists from
national laboratories, academia, and industry.
Research Divisions
Biological
Systems Science Division
BSSD aims to achieve a predictive understanding of complex
biological systems with potential use in bioenergy, carbon cycling and
biosequestration, and biogeochemistry.
BSSD research activities include
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Using genomics and systems biology to understand plants and
microbes.
- Supporting DOE Bioenergy Research Centers to provide transformational
breakthroughs in cellulosic biofuels.
- Developing real-time, high-resolution technologies for analyzing
dynamic biological processes.
Climate
and Environmental Sciences Division
CESD aims to achieve a predictive understanding of climate
change, ecosystem response to climate change, and contaminant fate and
transport in the subsurface.
CESD research activities include
- Resolving the greatest uncertainties in climate change.
- Improving the world’s most powerful climate models.
- Providing the science to inform environmental remediation strategies.
- Working to understand carbon cycling in terrestrial systems.
DOE Mission-Inspired Science: Addressing Critical National
Needs
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Sustainable Biofuels
To support the development of biofuels as major sustainable national
energy resources, the DOE Biological and Environmental Research (BER)
program is using the power of genomics and systems biology to study
microbes, fungi, and plants important to solving energy challenges. |
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Climate Science
To inform decision making about energy use and climate change, BER is
studying the effects of greenhouse gas emissions on Earth’s climate
and biosphere. |
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Subsurface Biogeochemistry To address some of the
nation’s most difficult environmental remediation challenges,
BER is working to understand and predict contaminant mobility in the
subsurface. |
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Biology-Physics Interface
To develop technologies that are transferable to diverse
applications, BER is exploring research at the interface of biological
and physical sciences. |
DOE User Facilities and Bioenergy Research Centers
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DOE
Bioenergy Research Centers
Bringing together top scientists from multiple disciplines,
DOE BER established three Bioenergy Research Centers in 2007 to deliver
high-risk, high-return breakthroughs in cellulosic biofuel production.
DOE’s Oak Ridge National Laboratory leads the BioEnergy Science
Center in Tennessee. The University of Wisconsin- Madison leads the
Great Lakes Bioenergy Research Center. DOE’s Lawrence Berkeley
DOE Bioenergy Research Centers National Laboratory leads the Joint
BioEnergy Institute in California. Each center is using genomics and
advanced analytical technologies to understand (1) how to make grasses,
wood, and other cellulosic materials easier to break down into sugars,
(2) which enzymes degrade biomass most efficiently, and (3) how to
advance the microbial production of ethanol and other gasoline-replaceable
fuels from sugars. |
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DOE
Joint Genome Institute (JGI)
Sequencing more than 800 billion DNA base pairs per
year, JGI in Walnut Creek, California, provides state-of-the-science
capabilities for genome sequencing and analysis. With more than 1300
worldwide collaborators on active projects, JGI is the preeminent
facility for sequencing plants, microbes, and microbial communities
that are foundational to energy and environmental research. |
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DOE
Environmental Molecular Sciences Laboratory (EMSL)
By integrating experimentation with supercomputing,
EMSL in Richland, Washington, enables the study of environmental challenges
at the molecular level. EMSL has helped thousands of researchers use
a multidisciplinary, collaborative approach to solve important challenges
in biological interactions and dynamics, subsurface science, and interactions
at the interfaces of natural and engineered materials. |
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DOE
ARM Climate Research Facility (ACRF)
Radiation Measurement (ARM) Program, ACRF provides
highly instrumented ground stations at various locations, mobile resources,
and aerial vehicles to continuously measure cloud and aerosol properties.
ACRF measurements have set the standard for long-term climate research
observations and provide an unparalleled resource for examining atmospheric
processes and evaluating climate model performance. |
Now Featuring
BER Advisory Committee Long-Term Vision Report [12/10]
BER Program Overview [10/11]
- News
- Reports
- Funding
- Research
Genomic Science-Related BER Research Highlights
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Protein Complex Within Plant Cell Wall Associated with Secondary Cell-Wall Synthesis
[Nov 30, 2011]
The plant cell wall polysaccharide pectin is often associated with the tissue softening that occu [more...]
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Designing Low Lignin, High Biomass Yielding Plants
[Nov 28, 2011]
The major barrier to the efficient conversion of biomass from plant feedstocks to biofuels is bre [more...]
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Microbial Conversion of Switchgrass to Multiple Drop-In Biofuels
[Nov 28, 2011]
The low efficiency and high cost of enzymes used to break down plant material into sugars remains [more...]
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How do Microbes Adapt to Diverse Environments?
[Nov 22, 2011]
Earth's microbes live in staggeringly diverse environments, colonizing habitats with extremes of [more...]
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Permafrost Microbes Could Make Impacts of Arctic Warming Worse
[Nov 06, 2011]
In Earth’s Arctic regions, frozen soils (permafrost) sequester an estimated 1.6 trillion metric t [more...]
- More BER Research Highlights »