A Monte Carlo computational model has been developed which simulates atomic oxygen attack of protected polymers at defect sites in the protective coatings. The parameters defining how atomic oxygen interacts with polymers and protective coatings as well as the scattering processes which occur have been optimized to replicate experimental results observed from protected polyimide Kapton on the Long Duration Exposure Facility (LDEF) mission. Computational prediction of atomic oxygen undercutting at defect sites in protective coatings for various arrival energies was investigated. The atomic oxygen undercutting energy dependence predictions enable one to predict mass loss that would occur in low Earth orbit, based on lower energy ground labora...
Because atomic oxygen and solar ultraviolet radiation present in the low earth orbital (LEO) environ...
A comparison of the relative erosion yields (volume of material removed per oxygen atom arriving) fo...
At the altitudes of low-earth orbit (LEO), atomic oxygen (AO) is the most abundant chemical species....
Characterization of the behavior of atomic oxygen interaction with materials on the Long Duration Ex...
Computational modeling of the erosion of polymers caused by atomic oxygen in low Earth orbit (LEO) i...
The probability of atomic oxygen reacting with polymeric materials is orders of magnitude lower at t...
Although the Long Duration Exposure Facility (LDEF) has exposed materials with a fixed orientation r...
Atomic oxygen in the low-Earth-orbital environment oxidizes SiOx protected polyimide Kapton solar ar...
A method is presented to model atomic oxygen erosion of protected polymers in low Earth orbit (LEO)....
Atomic oxygen is one of the predominant constituents of Earth's upper atmosphere. It is created by t...
Protection for polymeric surfaces is needed to make them durable in the low Earth orbital environmen...
Experimental results are presented on the erosion characteristics of the polyimide Kapton H, which s...
Low Earth orbital (LEO) atomic oxygen cannot only erode the external surfaces of polymers on spacecr...
Understanding the behavior of polymeric materials when exposed to the low-Earth-orbit (LEO) environm...
Low Earth orbital (LEO) atomic oxygen cannot only erode the external surfaces of polymers on spacecr...
Because atomic oxygen and solar ultraviolet radiation present in the low earth orbital (LEO) environ...
A comparison of the relative erosion yields (volume of material removed per oxygen atom arriving) fo...
At the altitudes of low-earth orbit (LEO), atomic oxygen (AO) is the most abundant chemical species....
Characterization of the behavior of atomic oxygen interaction with materials on the Long Duration Ex...
Computational modeling of the erosion of polymers caused by atomic oxygen in low Earth orbit (LEO) i...
The probability of atomic oxygen reacting with polymeric materials is orders of magnitude lower at t...
Although the Long Duration Exposure Facility (LDEF) has exposed materials with a fixed orientation r...
Atomic oxygen in the low-Earth-orbital environment oxidizes SiOx protected polyimide Kapton solar ar...
A method is presented to model atomic oxygen erosion of protected polymers in low Earth orbit (LEO)....
Atomic oxygen is one of the predominant constituents of Earth's upper atmosphere. It is created by t...
Protection for polymeric surfaces is needed to make them durable in the low Earth orbital environmen...
Experimental results are presented on the erosion characteristics of the polyimide Kapton H, which s...
Low Earth orbital (LEO) atomic oxygen cannot only erode the external surfaces of polymers on spacecr...
Understanding the behavior of polymeric materials when exposed to the low-Earth-orbit (LEO) environm...
Low Earth orbital (LEO) atomic oxygen cannot only erode the external surfaces of polymers on spacecr...
Because atomic oxygen and solar ultraviolet radiation present in the low earth orbital (LEO) environ...
A comparison of the relative erosion yields (volume of material removed per oxygen atom arriving) fo...
At the altitudes of low-earth orbit (LEO), atomic oxygen (AO) is the most abundant chemical species....