Polymers and other oxidizable materials on the exterior of spacecraft in the low Earth orbit (LEO) space environment can be eroded from reaction with atomic oxygen (AO). Therefore, in order to design durable spacecraft it is important to know the extent of erosion that will occur during a mission. This can be determined by knowing the LEO AO erosion yield, E(sub y) (volume loss per incident oxygen atom), of materials susceptible to AO reaction. In addition, recent flight experiments have shown that the AO E(sub y) can vary with the AO fluence and/or solar exposure. Therefore obtaining AO E(sub y) data for materials flown on various spaceflight missions is important. NASA Glenn Research Center has flown numerous experiments as part of the Ma...
The effects of atomic oxygen (AO) on materials in aerospace environments are examined. Materials are...
Polymers such as polyimide Kapton (DuPont) and Teflon FEP (DuPont, fluorinated ethylene propylene) a...
In order to test their reactivity with Atomic Oxygen, twenty five materials were flown on the EOIM-3...
Polymers and other oxidizable materials on the exterior of spacecraft in the low Earth orbit (LEO) s...
Polymers and other oxidizable materials on the exterior of spacecraft in the low Earth orbit (LEO) s...
Spacecraft in low Earth orbit (LEO) are subjected to harsh environmental conditions, including radia...
The Materials International Space Station Experiment 2 (MISSE 2) Polymer Erosion and Contamination E...
Atomic oxygen readily reacts with most spacecraft polymer materials exposed to the low Earth orbital...
Atomic oxygen erosion of polymers in low Earth orbit (LEO) poses a serious threat to spacecraft perf...
The Long Duration Exposure Facility (LDEF) satellite carried 57 experiments that were designed to de...
Spacecraft in low Earth orbit (LEO) are subjected to harsh environmental conditions, including radia...
The atomic oxygen erosion yields of various materials, measured in volume of material oxidized per i...
In the flight materials exposure data base extensive quantitative data is available from limited exp...
At the altitudes of low-earth orbit (LEO), atomic oxygen (AO) is the most abundant chemical species....
Atomic oxygen, which is the most predominant species in low Earth orbit, is highly reactive and can ...
The effects of atomic oxygen (AO) on materials in aerospace environments are examined. Materials are...
Polymers such as polyimide Kapton (DuPont) and Teflon FEP (DuPont, fluorinated ethylene propylene) a...
In order to test their reactivity with Atomic Oxygen, twenty five materials were flown on the EOIM-3...
Polymers and other oxidizable materials on the exterior of spacecraft in the low Earth orbit (LEO) s...
Polymers and other oxidizable materials on the exterior of spacecraft in the low Earth orbit (LEO) s...
Spacecraft in low Earth orbit (LEO) are subjected to harsh environmental conditions, including radia...
The Materials International Space Station Experiment 2 (MISSE 2) Polymer Erosion and Contamination E...
Atomic oxygen readily reacts with most spacecraft polymer materials exposed to the low Earth orbital...
Atomic oxygen erosion of polymers in low Earth orbit (LEO) poses a serious threat to spacecraft perf...
The Long Duration Exposure Facility (LDEF) satellite carried 57 experiments that were designed to de...
Spacecraft in low Earth orbit (LEO) are subjected to harsh environmental conditions, including radia...
The atomic oxygen erosion yields of various materials, measured in volume of material oxidized per i...
In the flight materials exposure data base extensive quantitative data is available from limited exp...
At the altitudes of low-earth orbit (LEO), atomic oxygen (AO) is the most abundant chemical species....
Atomic oxygen, which is the most predominant species in low Earth orbit, is highly reactive and can ...
The effects of atomic oxygen (AO) on materials in aerospace environments are examined. Materials are...
Polymers such as polyimide Kapton (DuPont) and Teflon FEP (DuPont, fluorinated ethylene propylene) a...
In order to test their reactivity with Atomic Oxygen, twenty five materials were flown on the EOIM-3...