LBNL is working with the Texas Bureau of Economic Geology (BEG) and other partners in the Gulf of Mexico Partnership for Offshore Carbon Storage (GoMCarb) aimed at ensuring safe, long-term, and economically viable offshore storage of carbon in the Gulf of Mexico (GoM) region.
Berkeley Lab’s Predictive Agricultural Initiative, as part of the UC Global Food Initiative launched in late 2014, focuses on mining existing data to understand the impacts of changing climate on California agriculture. For this project, in collaboration with UC Davis, Lab scientists work to develop new scientific approaches to increase food production, while simultaneously decreasing inputs of water and fertilizers.
In the context of nuclear waste disposal, rock salt has several favorable features, including near-zero permeability in the undisturbed state, very low porosity, and relative high thermal conductivity as compared to other potential host rock alternatives. Moreover, rock salt creeps under deviatoric stresses and temperature changes, and has the capability to heal fractures under favorable stress state.
The Small Business Innovation Research (SBIR) project concentrates on the creation of a predictive assimilation framework (PAF) for contaminated sites. This PAF would autonomously assimilate different site-related data streams into numerical models, and provide information on current (and future) site and system behavior to site stakeholders. The technical and scientific capabilities of the PAF are developed and tested by incorporating (into adequate numerical models) a variety of hydrological, geophysical and biogeochemical datasets from a highly instrumented site (the DOE Rifle Subsurface Biogeochemistry Field Observatory in Rifle, Colorado).
The Seismic Monitoring (Strong Motion) of LBNL Buildings Program has the primary objective of providing accurate measurements of acceleration time histories during significant earthquakes that affect LBNL sites and site structures. The Program consists of building monitoring systems and free field monitoring stations.
In this work, EESA scientists are using biology to develop ways of accessing oil and coal that expend less energy and release fewer greenhouse gases. For instance, biological processes might be used to coax oil from below ground or to alter the semi-porous rock that holds oil, making it flow to the surface. Making it easier to access hard-to-reach domestic oil reserves will help ensure that oil remains part of a diverse mix of energy choices.
Research in Nuclear Energy and Nuclear Waste Program are mostly funded by DOE’s Spent Fuel & Waste Science and Technology (SFWST) Campaign. In support of Campaign’s mission, Berkeley Lab scientists are now leading research and technology development to enable long-term waste disposal in other host-rock environments, such as shale, salt rock, and crystalline rock, and alternative repository designs.
This project characterizes the life-cycle dynamics of moist convection using stereo photogrammetry in combination with other instruments at Atmospheric Radiation Measurement (ARM) sites, and using large-eddy simulations to help interpret those observations. Stereo cameras are used to characterize the sizes, speeds, circulations, and ascent distances of individual convective bubbles through their life cycle. These data on cloud life cycles are difficult, if not impossible, to obtain with other ARM instruments.
In this SFA, we conduct basic research on terrestrial biogeochemistry, with a focus on belowground soil carbon cycling and its role in terrestrial biogeochemistry and climate feedbacks.
The Eagle Ford Shale Laboratory (EFSL) Project The Eagle Ford Shale Laboratory: A Field Study of the Stimulated Reservoir Volume, Detailed Fracture Characteristics, and EOR Potential OBJECTIVES The ultimate objective of this project is to help improve the effectiveness of shale oil production by providing new scientific knowledge and new monitoring technology for both…