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ARM’s Data Workbench concept will enable a unified ecosystem for users to access data, computing resources, and software packages to perform complex data analysis using ARM data. (Image credit: Carlos Jones, Oak Ridge National Laboratory) ARM Data Center
A series of containers outfitted with sophisticated ARM sampling equipment will operate from February 2023 to February 2024 in La Jolla, California, as part of the Eastern Pacific Cloud Aerosol Precipitation Experiment (EPCAPE). (Image credit: Karen Steinbock) ARM Translator Group
Tethered balloon system (TBS) flights were launched in September 2021 during ARM’s Surface Atmosphere Integrated Field Laboratory (SAIL) field campaign in Gothic, Colorado. The SAIL campaign, which will run from September 2021 to June 2023, will provide insights into mountainous water-cycle processes. (Image by Brent Peterson, Sandia National Laboratories) Atmospheric Radiation Measurement (ARM) User Facility
LANL aerosol and trace gas mobile container with aerosol and in-cloud sampling inlets deployed on Mt. Soledad during EPCAPE-PT-LANL. (Image Credit: A. Aiken, Los Alamos National Laboratory) Cloud Processing of Carbonaceous and Supermicron Aerosol
This figure illustrates field campaigns in the four EAGLES focus areas, overlaid with anthropogenic aerosol-mediated net top-of-atmosphere radiative effects of liquid clouds in E3SMv1. (Image credit: Po-Lun Ma and Jerome Fast) EAGLES: Enabling Aerosol-cloud interactions at GLobal convection-permitting scalES
The ICLASS logo shows the scope and scale of the ICLASS project. (Image credit: Jerome Fast) ICLASS: Integrated Cloud, Land-surface, and Aerosol System Study
Low-level clouds observed at the Department of Energy's Atmospheric Radiation Measurement (ARM) sites; the Eastern North Atlantic (ENA) atmospheric observatory and Southern Great Plains (SGP) atmospheric observatory. (Image credit: the Department of Energy Atmospheric System Research project) Multiscale Models to Advance the Understanding of Liquid-Phase Cloud Response to Aerosol Perturbation Over Ocean and Land with ARM Data
Inset global figures show maps of surface temperature change at two global warming levels. (Image credit: Lawrence Livermore National Laboratory) PCMDI: Program for Climate Model Diagnosis and Intercomparison
Schematic of a water isotope ratio and numerical tracer framework for E3SM. (Image Credit: Rich Fiorella, Los Alamos National Laboratory) Probing Water Cycle Processes and Extremes in Coastal and Urban Environments Using Water Isotope Ratio Tracers and Numerical Tags
Weather sensor install in Phoenix by ASU students for SW-IFL Project. (Image credit: David Sailor, ASU, 2023) SW-IFL: Southwest Urban Corridor Integrated Field Laboratory
A schematic diagram illustrating the approaches, science foci, and tools for THREAD (Tying in High Resolution E3SM with ARM Data), an Atmospheric System Research (ASR) Science Focus Area (SFA) project bridging the Department of Energy’s (DOE) Atmospheric Radiation Measurement (ARM) and Energy Exascale Earth System Model (E3SM) programs. THREAD will use ARM observations for diagnosis and improvement of E3SM’s kilometer-scale model configuration known as the Simplified Cloud-Resolving E3SM Atmospheric Model (SCREAM). (Image by Lawrence Berkeley National Laboratory) THREAD: Tying in High Resolution E3SM with ARM Data
A grid of four charts with two showing a range of red to blue and another showing a range of blue, green, yellow, brown Understanding Deep Convective Cloud Kinematic Processes and Their Responses to Aerosols
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