Nuclear rockets based on graphite reactor technology - Their applications and development status.
Nuclear rockets based on graphite reactor technology noting applications and development status
Finger, H. B.↗
SEARCH · Engineering Papers
Results for “graphitization”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.
Stress dependence of tensile creep rate in carbons and graphites.
Tensile creep rate stress dependence in pyrolytic and glassy graphites and carbons, discussing creep tests at high temperatures in He atmosphere
Fischbach, D. B.↗
Physical adsorption processes on interstellar graphite grains.
Adsorption processes on interstellar graphite grains, noting relations connecting gas densities and grain temperature for mantle growth
Williams, D. A.↗
Low-cycle fatigue in structural graphite under localized loading.
Cumulative damage effects in structural graphite in tension, using low cycle fatigue loading method
Kachur, V.↗
Location of electron and hole carriers in graphite from laser magnetoreflection data.
Electron and hole carriers location in pyrolytic graphite from magnetoreflection data, using circularly polarized radiation from IR gas laser source
Dresselhaus, M. S.↗
Evaporation of silicon monoxide from graphite cloth.
Graphite cloth source for SiO evaporation, discussing advantages of resistivity, mechanical flexibility and economy over refractory metals
Carithers, M. D.↗
On the formation of graphite grains in cool stars.
Graphite grain formation in stellar atmosphere, analyzing Hoyle-Wickramasinghe condensation mechanism and supersaturation based on nucleation theory
Donn, B.↗
Graphite triple point and solidus-liquidus interface experimentally determined up to 1000 atm.
Graphite phase diagram at high pressures and temperatures, obtaining triple point and solidus- liquidus interface for various grades
Schoessow, G. J.↗
Measured extinction efficiency of graphite grains.
Graphite grains extinction efficiency, noting experimental curve structure due to quantum effects and agreement between measured extinction curves and Mie theory
Donn, B.↗
The development of a segmented, axially conducting, pyrolytic graphite reaction control engine Quarterly report, 15 Dec. 1965 - 14 Mar. 1966
Design of segmented, axially conducting, pyrolytic graphite rig engine, including thermal and structural analyses
Source record↗
The Manufacture and Properties of an Extruded, Resin-Bonded Graphite, CMF-13 Lot AAQ1
Manufacture and properties of extruded resin bonded graphite
Smith, M. C.↗
The development of a segmented, axially conducting, pyrolytic graphite reaction control engine Quarterly report, 15 Dec. 1966 - 14 Mar. 1967
Development of integral spray injector for pyrolytic graphite reaction control engine
Source record↗
Crystallographic data on selected artificial graphites with comments on the role of the degree of crystal development in oxidation
X ray crystallographic measurements of selected grades of commercial nonpyrolitic artificial graphite
Maahs, H. G.↗
Metal carbide-graphite composites Summary report no. 2, 1 Aug. 1967 - 31 Aug. 1968
Controlling mechanical properties of hot pressed metal carbide-graphite composite materials
Source record↗
Effect of physical parameters on the reaction of graphite with silica in vacuum
Effect of physical parameters on reduction of silica graphite mixtures under vacuum conditions
Haas, L. A.↗
CMF-13 research on carbon and graphite Progress summary report, 1 Aug. - 31 Oct. 1968
Microstructural studies to improve mechanical and physical properties of carbon and graphite
Smith, M. C.↗
Preliminary investigation of graphite fluoride /CF sub x/ sub n as a solid lubricant
Friction and wear tests with graphite fluoride lubricant
Fusaro, R. L.↗
Metal carbide-graphite composites Final report, 1 Sep. 1968 - 28 Feb. 1969
Use of WC as densification aid for NbC-graphite composites
Source record↗