Server maintenance is scheduled for Saturday, December 21st between 6am-10am CST.

During that time, parts of our website will be affected until maintenance is completed. Thank you for your patience.

Menu
Search
Filters
Close
Menu

96171 ENGINEERING ASSESSMENTS OF OXIDATION OF COMMERCIAL ALLOYS

Picture for 96171 ENGINEERING ASSESSMENTS OF OXIDATION
Available for download
Product Number: 51300-96171-SG
ISBN: 96171 1996 CP
Author: R. C. John
$0.00
$20.00
$20.00
Oxidation of commercial, heat resistant alloys which are widely used in high temperature equipment has been studied for temperatures of 1,400-2,000°F (760-1 ,093°C), times up to one year, and O2 concentrations of 1-100% volume in O2-N2 mixtures at one atmosphere total pressure. The traditional method of reporting oxidation by weight change/area was found to measure only 10-20% of the total metal penetration by oxidation for many alloys. Most of the alloys formed a surface layer rich in Cr2O3 and experienced the majority of metal penetration by internal oxidation or void formation. Surface scale formation with the absence of internal oxidation was otlen observed for alloys which formed scales rich in Al2O3. These alloys tended to undergo very little internal oxidation, except during exposures to conditions of low temperatures and low 02 concentrations. Metal penetration and penetration rate depended upon exposure time with a parabolic time dependence. However, some of the alloys required up to 1,152 hr to approach a parabolic time dependence. The extent of penetration depended on temperature, O2 concentration, alloy, and time. Keywords: commercial alloys, oxidation, temperature, O2 concentration, time dependence, maximum scaling temperature, internal oxidation
Oxidation of commercial, heat resistant alloys which are widely used in high temperature equipment has been studied for temperatures of 1,400-2,000°F (760-1 ,093°C), times up to one year, and O2 concentrations of 1-100% volume in O2-N2 mixtures at one atmosphere total pressure. The traditional method of reporting oxidation by weight change/area was found to measure only 10-20% of the total metal penetration by oxidation for many alloys. Most of the alloys formed a surface layer rich in Cr2O3 and experienced the majority of metal penetration by internal oxidation or void formation. Surface scale formation with the absence of internal oxidation was otlen observed for alloys which formed scales rich in Al2O3. These alloys tended to undergo very little internal oxidation, except during exposures to conditions of low temperatures and low 02 concentrations. Metal penetration and penetration rate depended upon exposure time with a parabolic time dependence. However, some of the alloys required up to 1,152 hr to approach a parabolic time dependence. The extent of penetration depended on temperature, O2 concentration, alloy, and time. Keywords: commercial alloys, oxidation, temperature, O2 concentration, time dependence, maximum scaling temperature, internal oxidation
PRICE BREAKS - The more you buy, the more you save
Quantity
1+
5+
Price
$20.00
$20.00
Product tags
Also Purchased
Picture for 96175 Control and Reversal of Biofilm Episode
Available for download

96175 Control and Reversal of Biofilm Episode in a Nuclear Power Plant Main Condenser System

Product Number: 51300-96175-SG
ISBN: 96175 1996 CP
Author: John P Terry, Gary Schultz, Steve Ewens
$20.00
Picture for 96172 HIGH TEMPERATURE EROSION OF OXIDE
Available for download

96172 HIGH TEMPERATURE EROSION OF OXIDE SCALE FORMED ON T2 AND 310HcbN STEELS IN A SIMULATED PFBC CORROSION ENVIRONMENT

Product Number: 51300-96172-SG
ISBN: 96172 1996 CP
Author: T. Hayashida, S. Miyazaki, Y. Imaizumi, K.Ogawa, S.Tokura, N. Otsuka
$20.00
Picture for 96173 HIGH TEMPERATURE CORROSION BY DEPOSITS
Available for download

96173 HIGH TEMPERATURE CORROSION BY DEPOSITS OF ALKALI SALTS

Product Number: 51300-96173-SG
ISBN: 96173 1996 CP
Author: J. Klower
$20.00
Categories
Industry
Recently viewed
Popular tags
View all

Association for Materials Protection and Performance

© AMPP All Rights Reserved.
Membership Terms of Content Use
Contact Customer Support