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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Site C1a - UTD Scanning Lidar (Windcube 200S) / Raw Data
Site C1a UTD LIDAR Windcube 200S / Raw Data
Site C1 UTD Sonic Anemometer / Processed Data
This dataset contains processed data from the Site C1 UTD Sonic Anemometer.
Site C1 UTD Sonic Anemometer / Reviewed Data
This dataset contains reviewed data from the AWAKEN Site C1 UTD Sonic Anemometer.
MVCO site - UTD Scanning Lidar (Windcube 200S) / Raw Data
This dataset contains raw data from the UTD LIDAR Windcube 200S at the MVCO site.
MVCO site - UTD Scanning Lidar (Halo XR) / Raw Data
This dataset contains raw data from the UTD Halo XR Lidar at the WFIP3 MVCO site.
MVCO site - UTD LIDAR Halo XR / Processed Data
This dataset contains processed data from the UTD Halo XR Lidar at the MVCO site.
MVCO site - UTD Surface Met / Raw Data
This dataset contains raw data from the WFIP3 MVCO site UTD sonic anemometer.
MVCO site - UTD Surface Met Station / Reviewed Data
This dataset contains reviewed data from the C1 UTD surface met station at the MVCO site.
Site C1 UTD Sonic Anemometer / Reviewed Data
This dataset contains reviewed data from the AWAKEN Site C1 UTD Sonic Anemometer.
AWAKEN Site C1 UTD Surface Met Station / Reviewed Data
This dataset contains reviewed data from the AWAKEN Site C1 UTD Surface Met Station.
MVCO Site - Lidar / Processed Data
This dataset contains processed data from the UTD LIDAR Windcube 200S at the WFIP3 MVCO site.
SPRUCE: Sphagnum Carbon, Nitrogen and Phosphorus Concentrations in the SPRUCE Experimental Plots
This data set reports the concentrations of carbon (C), nitrogen (N), and phosphorus (P) in capitula, current year stems, and one-year old stem tissue of Sphagnum from 2016-2018. Measurements are continuing and new data will be appended as they become available. Three types of Sphagnum were sampled -- S. angustifolium/fallax from hummocks (AngFal_Hum), S. angustifolium/fallax from hollows (AngFal_Hol), and S. magellanicum from hummocks (Mag_Hum) from SPRUCE experimental study plots. Measurements were made in 10 enclosures comprising five levels of temperature elevation in ambient CO2 and five levels in elevated CO2. Measurements also were made in two ambient (no enclosure) plots. Nutrient concentrations were analyzed in conjunction with assessment of Sphagnum growth, which was measured in 3.79-cm diameter mesh columns collected every October and are described in the related dataset (https://doi.org/10.25581/spruce.049/1426474). The SPRUCE experiment is being conducted at the 8.1-ha S1 bog forest site in northern Minnesota, 40 km north of Grand Rapids, in the USDA Forest Service Marcell Experimental Forest (MEF).
Data for EMSL Project 60458 from September 2022
Explore the source record for details and available documents.
Data for EMSL Project 60458 from October 2022
Explore the source record for details and available documents.
Advancing ocean monitoring and knowledge for societal benefit: the urgency to expand Argo to OneArgo by 2030
The ocean plays an essential role in regulating Earth’s climate, influencing weather conditions, providing sustenance for large populations, moderating anthropogenic climate change, encompassing massive biodiversity, and sustaining the global economy. Human activities are changing the oceans, stressing ocean health, threatening the critical services the ocean provides to society, with significant consequences for human well-being and safety, and economic prosperity. Effective and sustainable monitoring of the physical, biogeochemical state and ecosystem structure of the ocean, to enable climate adaptation, carbon management and sustainable marine resource management is urgently needed. The Argo program, a cornerstone of the Global Ocean Observing System (GOOS), has revolutionized ocean observation by providing real-time, freely accessible global temperature and salinity data of the upper 2,000m of the ocean (Core Argo) using cost-effective simple robotics. For the past 25 years, Argo data have underpinned many ocean, climate and weather forecasting services, playing a fundamental role in safeguarding goods and lives. Argo data have enabled clearer assessments of ocean warming, sea level change and underlying driving processes, as well as scientific breakthroughs while supporting public awareness and education. Building on Argo’s success, OneArgo aims to greatly expand Argo’s capabilities by 2030, expanding to full-ocean depth, collecting biogeochemical parameters, and observing the rapidly changing polar regions. Providing a synergistic subsurface and global extension to several key space-based Earth Observation missions and GOOS components, OneArgo will enable biogeochemical and ecosystem forecasting and new long-term climate predictions for which the deep ocean is a key component. Driving forward a revolution in our understanding of marine ecosystems and the poorly-measured polar and deep oceans, OneArgo will be instrumental to assess sea level change, ocean carbon fluxes, acidification and deoxygenation. Emerging OneArgo applications include new views of ocean mixing, ocean bathymetry and sediment transport, and ecosystem resilience assessment. Implementing OneArgo requires about $100 million annually, a significant increase compared to present Argo funding. OneArgo is a strategic and cost-effective investment which will provide decision-makers, in both government and industry, with the critical knowledge needed to navigate the present and future environmental challenges, and safeguard both the ocean and human wellbeing for generations to come.
Aquaporin-7: A Dynamic Aquaglyceroporin With Greater Water and Glycerol Permeability Than Its Bacterial Homolog GlpF
Not Available