Data compression development - A comparison of two floating-aperture data compression schemes
Comparison of two floating aperture data compression schemes
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Comparison of two floating aperture data compression schemes
Onboard equipment for space probe data acquisition and transmission
Technical description and systems engineering contractor data package for Voyager spacecraft
Manufacturing contractor data project for Voyager spacecraft systems
Contractor data package for Voyager spacecraft configuration management
Manufacturing verification tests for quality assurance and control data management on Voyager spacecraft
Test and mission operations contractor data package for Voyager spacecraft
Contractor data package for Voyager logistics and support in transportation, communications, supply, and maintenance
Contractor data requirements for design, testing, inspection and control of Voyager facilities
Contractor data requirements to insure safety of personnel, facilities, and equipment of Voyager operations
Contractor data requirements for site activation for Voyager spacecraft launch
Contractor data requirements for integration of scientific experiments aboard Voyager spacecraft
Technical, administrative, and managerial data documentation by contractors on interfaces between Voyager project and related space programs
Contractor data requirements relating to advanced missions and potential follow-up programs of Voyager project
Our vision is to provide first-class, robust archive, distribution, and real-time services for space geodesy data, products, and information to the global scientific research community.
This paper discusses the approach taken to develop a prototype data architecture for the discovery and validation of disease biomarkers within a biomedical research network.
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Increased aerosols can modify the shape of the cloud Particle Size Distribution (PSD), thereby influencing the radiative properties of clouds, known as the Dispersion Effect (DE). However, a global, observation-based quantification of its impact on Aerosol-Cloud Interactions (ACI) is lacking, leading to DE being typically ignored in satellite-based estimates of ACI forcing. Here we propose a physics-based method that combines polarimetric satellite data on cloud PSD to achieve global observational quantification of DE’s impact on ACI in liquid-phase stratiform clouds. Globally, DE offsets ACI changes induced by droplet number concentration variation and liquid water path adjustment by 7% and −1.4%, respectively. Furthermore, a parameterization based on the global dataset of PSD shape parameters is developed to improve DE estimation in large-scale models. Both the quantification and parameterization enhance our understanding of DE and facilitate the inclusion of this non-negligible impact of DE on ACI in estimating aerosol climate forcing.