Climate Resilience
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- Climate Resilience
Climate change is driving adverse weather extremes that disrupt critical functions.
Examples include water distribution and reservoir construction, wildfire response and forest management, energy delivery, resilience of military installations, communications infrastructure, housing and transportation, and agricultural planning, among numerous others.
Resilience demands that experts evaluate and understand projections of the new normal and advise on how to prepare for, and when possible, mitigate anticipated effects. Effects could include peak wind speeds that exceed infrastructure design, peak water temperatures that de-rate power plants when their electricity is in highest demand, unprecedented flooding that disrupts commerce and agriculture, or even peak minimum temperatures that expand the geographical range of vector-borne diseases to unprepared population centers.
LLNL researchers are harnessing core competencies in high-performance computing, climate modeling, model evaluation, data analytics, uncertainty quantification, and risk/threat analysis to identify and manage the impacts of climate change on critical infrastructure and national security and to accelerate clean energy technology development and deployment.
Mitigation
Developing and accelerating solutions to minimize greenhouse gas emissions
Enabled by expertise in materials science, biogeochemistry, geosciences, and systems analysis, LLNL researchers are delivering technological and geological solutions to aid in slowing the accumulation of greenhouse gases in the atmosphere.
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Adaptation
Developing integrated models that support planning and decision making
Scientists at Lawrence Livermore are developing accurate and efficient methods for anticipating hazards, quantifying vulnerabilities, and formulating mitigation strategies for climate change impacts on people and infrastructure.
Using high-resolution, high-efficiency modeling to assess climate impacts on extreme events
Forecasting and mitigating the impacts of climate change on renewable energy resources and grid reliability
Evaluating underground water storage using isotopes
A first-of-its-kind global multiscale framework for large wildfire simulations