Experimental investigation of ultra-high vacuum adhesion as related to the lunar surface Seventh quarterly progress report, 1 Jan. - 31 Mar. 1966
Silicate ultrahigh vacuum frictional and adhesional behavior as related to lunar surface
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Silicate ultrahigh vacuum frictional and adhesional behavior as related to lunar surface
Solar light, solar wind, differences between temperatures of the lunar surface, solar photosphere, and deep space, as well as noticeable changes of surface temperature in the absence of atmosphere provide opportunities for energy production and storage on the Moon using generators ranging from solar panels and thermocouples to devices using phase transitions or magnetism. There are multiple and diverse possibilities for energy generation and storage. Compositions of the relevant materials can be compared to abundances of chemical elements in lunar regolith.
Lunar surface mobility systems comparison and evolution - resource planning for mobility systems derived from lunar module, command module, and multimission module
Differential reflectivity concept use in determining scattered electromagnetic radiation from lunar surface
Ultrahigh vacuum adhesion of single crystal silicates - relation to lunar surface properties
This presentation summarizes the contents of the uncrewed lunar surface operations and support activities paper. It outlines the functions, features, and capabilities that support sustained human and robotic surface operations. It summarizes the complexities associated with the development and operation of autonomous systems and discusses a simulation tool for integrated surface operations planning.
The stated goals of the 2004 Vision for Space Exploration focus on establishing a human presence throughout the solar system beginning with the establishment of a permanent human presence on the Moon. However, the precise objectives to be accomplished on the lunar surface and the optimal system architecture to achieve those objectives have been a topic of much debate since the inception of the Constellation Program. There are two basic styles of system architectures being traded at the Programmatic level: a traditional large outpost that would focus on techniques for survival off our home planet and a greater depth of exploration within one area, or a mobile approach- akin to a series of nomadic camps- that would allow greater breadth of exploration opportunities. The traditional outpost philosophy is well within the understood pressure garment design space with respect to developing interfaces and operational life cycle models. The mobile outpost, however, combines many unknowns with respect to pressure garment performance and reliability that could dramatically affect the cost and schedule risks associated with the Constellation space suit system. This paper provides an overview of the concepts being traded for a mobile architecture from the operations and hardware implementation perspective, describes the primary risks to the Constellation pressure garment associated with each of the concepts, and summarizes the approach necessary to quantify the pressure garment design risks to enable the Constellation Program to make informed decisions when deciding on an overall lunar surface systems architecture.
Mapping of lunar surface and measurement of radar cross section of moon for selection of landing site
Computer program to solve heat conduction equation in lunar surface for temperature-dependent thermal properties
Radar back-scatter theories for near-vertical incidence and their application to an estimate of lunar surface roughness
Ultrahigh vacuum frictional adhesional behavior of silicates related to lunar surface - modifications, sorption pump bank, cleavage device, and roughness effects
Lunar surface mobility systems comparison and evolution study for advanced roving and flying vehicles
Aluminized plastic covers to reduce radiator sink temperatures on lunar surface
Surveyor data evaluation for electromagnetic properties of lunar surface materials
Meteoroid environment model for cometary origin near earth to lunar surface
Electron beam meter application as lunar surface electric field detector, discussing breadboard model and performance characteristics
Elastic properties of lunar surface from Surveyor spacecraft data
Summaries of lunar soil studies and fluid conductivity of lunar surface materials