Development of partially volatile brazing filler alloys for high-temperature application and resistance to oxidation.

Cover title.

High temperature heat transfer gages; high temperature thin-film resistance thermometers for heat transfer measurements.

"Conference paper. I. E. E. E. Paper no. CP 63-381."

Materials for high temperature nuclear engineering applications, progress report no. ...

Report year begins and ends on Aug. 15th.

Development of high temperature sensors : July 1, 1959-April 30, 1961 /

"Contract AT(11-1)-229."

Development of composite structural materials for high temperature applications; final report, 23 November 1964-22 Novenber 1965

"Contract Now-65-0176c."

Test methods for high temperature materials characterization /

"Final report for period February 1976-December 1978."

High temperature oxidation and nitridation of niobium in ultrahigh vacuum : final report, covering the period July 1, 1963 to October 31, 1964 /

"Stanford Research Institute, Menlo Park, California."

An experimental study of heat transfer at high temperature differences in turbulent air flow between a rotating cylinder and a stationary concentric auter cylinder,

Final report no. AFOSR 3207.

Studies of materials at high temperature.

Mode of access: Internet.

High temperature infra-red transmission studies of ultrasil fused quartz for Project FIRE /

Photocopy.

High temperature machining methods. Phase I: Evaluation of elevated temperature machining methods.

"Submitted in partial fulfillment of Contract A. F.---33(600)40066."

Research and development on high-pressure-high-temperature metallurgy,

Cover title.

Vaporization of compounds and alloys at high temperature.

Mode of access: Internet.

Thermal properties of high-temperature materials /

"June 1964."

Isostatic pressing of UO₂ in high temperature metals /

The hot isostatic pressing process has been applied at temperatures up to 1500°C for the fabrication of high temperature fuel rods composed of UO₂ clad in columbium and UO₂ in iron-aluminum type alloy. The fused UO₂ powder apparently becomes quite plastic at temperatures above 1200°C and can be isostatically compacted at 1500°C to 98% of its theoretical density. Columbian tubes particularly lend themselves to the fabrication of fuel rods by simultaneously compacting and cladding UO₂ powders in the tubes, but the cast iron-aluminum type alloy that was used was unsatisfactory because of its brittleness.