On the mechanisms of high-temperature plastic deformation in pyrolytic carbons.
Dewrinkling and diffusion mass transport mechanisms in high temperature tensile and shear plastic deformation of pyrolitic carbons
HIGH TEMPERATURE MATERIAL↗
Engineering topics
Kotlensky, W. V.
Publications and source records attributed to Kotlensky, W. V..
Analysis of high temperature creep in pyrolytic carbon
Analysis of high temperature tensile creep in pyrolytic graphite by Dorn method
HIGH TEMPERATURE MATERIAL↗
Tensile and structural properties of glassy carbon
High temperature tensile strength of glassy carbons in helium atmosphere - mechanical properties
MECHANICAL PROPERTY↗
Carbon and graphite research
Structural changes accompanying creep deformation of pyrolytic carbon and electron micrography and fractography of glassy carbons
ELECTRON MICROSCOPY↗
Tensile properties of glassy carbon to 2,900 deg c.
Tensile properties of two grades of glassy carbon from room temperature to 2900 degrees C
TENSILE STRENGTH↗
Structural changes accompanying deformation in pyrolytic graphite.
Structural changes in pyrolytic graphite accompanying deformation produced by applying stress parallel to substrate examined by electron microscopy and X-ray diffraction
PYROLYTIC GRAPHITE↗
Structural Transformation in Pyrolytic Graphite Accompanying Deformation
Pyrolytic graphite deformation and structural transformation
DEFORMATION↗
Structural and High-Temperature Tensile Properties of Special Pitch-Coke Graphites
The room-temperature structural properties and the tensile properties up to 5000 F (275O C) were determined for ten grades of specially prepared petroleum-coke coal-tar-pitch graphites which were graphitized at 5430 F (3000 C). One impregnation with coal-tar pitch increased the bulk density from 1.41 to 1.57 g/cm3 and the maximum strength at 4500 F (2500 C) from 4000 to 5700 psi. None of the processing parameters studied had a marked effect on the closed porosity or the X-ray structure or the per cent graphitization. The coarse-particle filler resulted in the lowest coefficient of thermal expansion and the fine-particle filler in the highest coefficient. A marked improvement in uniformity of tensile strength was observed. A standard-deviation analysis gave a one-sigma value of approximately 150 psi for one of these special grades and values of 340-420 psi for three commercial grades.
GRAPHITE↗