Abstract

Materials have a primary purpose in the design of space vehicles, such as fuels, walls, racks, windows, etc. Additionally, each will also affect space radiation protection. Using the On-Line Tool for the Assessment of Radiation in Space (OLTARIS), version 3.5, analysis package, this article includes the whole body effective dose equivalent (ED) data from human phantoms being shielded by 59 aerospace materials for deep space travel. To represent the average anatomy of an astronaut, the Female Adult voXel (FAX), 2005 version, and the Male Adult voXel (MAX), 2005 version, human phantoms are used. A simple spherical geometry, which is composed of a spherical shell with the human phantom placed in the center, is also used. Eighteen shielding thicknesses ranging from 0.01 to 1000 g per centimetres squared are evaluated and the ray distribution used in this study is the 1002 geodesic. All aerospace materials are categorized into four groups: metals, polymers, composites, and fuels, hydrides, and liquid gases. These materials include common fuels and propellants used in space travel, engineered materials developed to significantly increase the absorption of secondary radiation, and materials in the early stages of development for the purpose of meeting both shielding and structural needs of future spacecraft missions. The data in this article is used for the paper, “Evaluating the Effectiveness of Common Aerospace Materials at Lowering the Whole Body Effective Dose Equivalent in Deep Space,” [13].

Highlights

  • Subject Specific subject area Type of data How data were acquired Data format Parameters for data collection

  • Companies and scientists that are working towards designing spacecrafts to protect astronauts from deep space radiation during extended missions

  • This data shows patterns in material effectiveness to lower exposure to astronauts, that can be used in directing material development for shielding purposes in deep space missions

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Summary

Data accessibility Related research article

Aerospace Engineering Aerospace material's impact on deep space radiation Tables OLTARIS, the On-Line Tool for the Assessment of Radiation in Space, version 3.5. Companies and scientists that are working towards designing spacecrafts to protect astronauts from deep space radiation during extended missions This data shows patterns in material effectiveness to lower exposure to astronauts, that can be used in directing material development for shielding purposes in deep space missions. The data compiled in this article is the whole body effective dose equivalent (ED) absorbed within the male adult voxel (MAX) [1] and female adult voxel (FAX) [2]human phantom calculated using the On-Line Tool for the Assessment of Radiation in Space (OLTARIS) [3e5], version 3.5. The fuels, hydrides and liquid gases include common fuels and propellants that will be needed on deep space missions This category includes the shielding materials that have been shown to have the ability to efficiently absorb the energy of the solar and cosmic radiation particles, as well as minimize the formation of secondary radiation. Radiation and materials in the early stages of development for the purpose of meeting both shielding and structural needs of future spacecraft missions, for example hydrogen storage in carbon and boron nitride nanotubes

Model descriptions and geometry
GCR boundary condition
Findings
SPE boundary condition
Full Text
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