The Effect of Cooling Rate on the Ductile- Brittle Bend-transition Temperature of Chromium Wire
Effect of cooling rate on ductile-brittle bend-transition temperature of chromium wire
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Effect of cooling rate on ductile-brittle bend-transition temperature of chromium wire
Electronic and nuclear properties of excited chromium isotopes using level crossing and double resonance spectroscopy techniques
Protective coatings for chromium-5 tungsten alloy
Exchange-coupled chromium ion pairs in ruby, and application of piezospectroscopic effect to laser technology
Quenching and slow-cooling effects on ductile- brittle bend-transition temperature of chromium wire
Chromium-vanadium alloys for brazing tungsten to molybdenum in engine application
7P terms of excited chromium configurations examined, using level crossing and double resonance spectroscopy, noting core polarization
Chromium used as a base for high temperature structural alloys
Effect of quenching on ductile-brittle bend transition temperature of chromium wire
Chromium alloy sheet and plate produced by rare gas induction melting, hot extrusion, and warm rolling
Nitrogen solubility in liquid and solid chromium at elevated gas phase pressure
Protective aluminum coatings for chromium alloys
Dispersion strengthened chromium alloys with minimal quantities of interstitial impurities
Vapor deposition and precipitation hardening methods for producing dispersion chromium alloys
X-ray Debye temperature thermal variation measurements of pure nickel and chromium
Self-lubricating properties of composites of porous nickel and nickel-chromium alloy impregnated with barium fluoride-calcium flouride eutectic
For a simple diffraction pattern, the time required to calculate interplanar distances from measurements of the pattern is not excessive. If more than a few lines are present, however, or if several patterns are to be studied, it is very advantageous to have available a table giving interplanar spacings directly in terms of the linear measurements made on the film of the lines appearing on the diffraction pattern. The preparation of the table given here was undertaken when the expansion of research activities involving X-ray diffraction techniques indicated that such a table would greatly decrease the time required to analyze diffraction patterns. The table was prepared for use with K alpha(sub 1) radiation from the following target materials: molybdenum, copper, cobalt, iron, and chromium.