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INCOLOY Alloy 800 M INCOLOY ® Alloy 800

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INCOLOY Alloy 800 M INCOLOY ® Alloy 800 www.specialmetals.com The story of the “INCOLOY® alloys approved for INCOLOY alloy 800, and these were listed to replace those covering INCONEL alloy 600. In series,” from 800 through 800H, 1967, an external pressure vessel chart for Grade 1 was 800HT® added, and the following year the same addition was made for Grade 2. The INCOLOY® 800 series of alloys, invented by the In 1969, design stresses were increased as a result Special Metals Corporation Group of Companies, is the of changes in the criteria to determine those stresses. result of years of monitoring and maintaining the The minimum tensile strength curve was increased 10% ultimate chemical properties for high-temperature and the rupture criterion was increased from 62.5 to strength and resistance to oxidation, carburization and 67% of the extrapolated 100,000 hour rupture strength. other types of high-temperature corrosion. Six months later, the Case was changed from covering Each one a refinement of the one before, these Sections I and VIII to Section I only since the design alloys have set the industry standard in high- stresses for Section VIII had been included in Table temperature applications requiring optimum creep and UNF-23. There were also two sets of design stresses rupture properties. listed for each grade, one giving the values when the INCOLOY nickel-iron-chromium alloy 800 was two-thirds yield strength criterion was used, the other introduced to the market in the 1950s to fill the need for when 90% of yield strength was used. a heat- and corrosion-resistant alloy with a relatively low nickel content since nickel was, at the time, designated a “strategic” metal. Over the past forty years INCOLOY® alloy 800H it has been widely used for its strength at high temperatures and its ability to resist oxidation, (UNS N08810) carburization, and other types of high-temperature It had been known for some time that higher carbon corrosion. Applications include furnace components alloy 800 had higher creep and rupture properties than and equipment, petrochemical furnace cracker tubes, low-carbon material. For that reason, Special Metals pigtails and headers, and sheathing for electrical heating had melted to a carbon range of 0.05 to 0.10% except elements. for special orders where customers specified a lower In 1963, the alloy was approved by the ASME carbon content. The carbon range of 0.05 to 0.10% is alloy 800 Boiler and Pressure Vessel Committee, and the design within the ASTM and ASME specification limits for stresses were published in Code Case 1325. For the first alloy 800 and is in the upper portion of that range. time, aluminum and titanium were listed as purposeful Special Metals generated data for this material and ® additions (at 0.15 to 0.60% each), and annealed material presented them to the ASME Code. The Code approved was differentiated from solution-annealed material. The higher design stresses for Section I and Divisions 1 and new terms “Grade 1, annealed at approximately 1800°F 2 of Section VIII, which appeared in Code Case 1325- (980°C)” and “Grade 2, annealed at approximately 7. Note that alloy 800H required not only a carbon 2100°F (1150°C)” came into use. The Code Case range of 0.05 to 0.10% but also an average grain size of covered Sections I and VIII, and listed design stresses ASTM 5, or coarser. for Grade 1 to 1100°F (593°C) and for Grade 2 to With the issuance of Code Case 1325-7 and the 1500°F (816°C). common use of the term “800H”, there was no longer a Over the next few years, the Committee made need to refer to “Grade 2” because it was replaced by several revisions. In 1965, extruded tube was accepted 800H, and the material that had been called Grade 1 as Grade 2 material without heat treatment. By the became, simply, INCOLOY alloy 800. following year, ASTM specifications had been INCOLOY Publication Number SMC-046 The data contained in this publication is for informational purposes only and may be revised at any time without prior notice. The data is believed to be Copyright © Special Metals Corporation, 2004 (Sept 04) accurate and reliable, but Special Metals makes no representation or warranty of any kind (express or implied) and assumes no liability with respect to the INCONEL, INCOLOY, MONEL, INCO-WELD, accuracy or completeness of the information contained herein. Although the data is believed to be representative of the product, the actual characteristics or INCOFLUX and 800HT are trademarks of the Special performance of the product may vary from what is shown in this publication. Metals Corporation group of companies. Nothing contained in this publication should be construed as guaranteeing the product for a particular use or application. INCOLOY ® alloy 800 INCOLOY® alloy 800HT® Table 1 - Limiting Chemical Compositions, %, for INCOLOY alloys 800, 800H, and 800HT (UNS N08811) General Requirements Several other alloy manufacturers entered the alloy 800H UNS designation N08800 N08810 N08811 (UNS N08810) market and additional creep and rupture data became available. The Metals Property Council for ASME INCOLOY alloys 800 800H 800HT gathered this data and made a new analysis using parametric Nickel 30.0-35.0 30.0-35.0 30.0-35.0 procedures, involving 87 heats and 1,052 data points. The Chromium 19.0-23.0 19.0-23.0 19.0-23.0 additional data, from other manufacturers, included results Iron 39.5 min. 39.5 min. 39.5 min. with considerably lower strength, and the new analysis, Carbon 0.10 max. 0.05-0.10 0.06-0.10 which reflected the results of all the available data, resulted Aluminum 0.15-0.60 0.15-0.60 0.25-0.60 in a recommendation that the design stresses be revised. Titanium 0.15-0.60 0.15-0.60 0.25-0.60 These revised values were lower for temperatures of 1100 through 1500°F (593-816°C), and about the same for 1600 Aluminum + Titanium 0.30-1.20 0.30-1.20 0.85-1.20 and 1650°F (871 and 899°C). ASTM grain size Not specified 5 or coarser 5 or coarser Special Metals knew the importance of maintaining the Note: These alloys can be specified to more restrictive compositions on a aluminum and titanium contents in the upper portion of the specific order basis. specified material range. This resulted in higher creep and stress rupture properties than competitive alloy 800H. Therefore, to maintain higher allowable design stresses, the INCOLOY alloy 800H, special requirements* company introduced a variation of INCOLOY alloy 800H Carbon 0.08 max. which is called INCOLOY alloy 800HT (UNS N08811). Aluminum + Titanium 0.4-0.7 INCOLOY alloy 800HT has a restricted chemistry, within ASTM grain size Special the limits of alloy 800H, and requires a heat treatment of 2100°F (1149°C) minimum. The carbon is 0.06 to 0.10% *As agreed for specific orders. (alloy 800H is 0.05 to 0.10%), the Al + Ti is 0.85 to 1.20% (alloy 800H is 0.30 to 1.20% Al + Ti). Special grain size requirements* The maximum allowable stresses for INCOLOY alloy INCOLOY alloys 800H and 800HT 800HT (UNS N08811) are contained in ASME Code Case Plate ASTM 1-5 1987 – latest revision. The alloy meets all the requirements for UNS N08811 and N08810 (alloy 800H) and can be Tube/Pipe ASTM 1-5 certified to either or both UNS numbers. It is important to Sheet ASTM 2-5 note that INCOLOY alloy 800HT (UNS N08811) has higher *As agreed for specific orders. maximum allowable design stresses than UNS N08810. Therefore, other materials produced to UNS N08810 (alloy 800H) cannot be certified as UNS N08811 unless they meet INCOLOY® alloy 800 the additional requirements for this designation. INCOLOY alloy 800HT is the result of years of monitoring and INCOLOY alloy 800 (UNS N08800/W. Nr. 1.4876) is a maintaining the ultimate properties in this series of alloys by widely used material for construction of equipment The Special Metals Corporation group of companies, the requiring corrosion resistance, heat resistance, strength, and inventor of all the INCOLOY 800 series alloys. stability for service up to 1500°F (816°C). Alloy 800 offers Information describing INCOLOY alloys 800H and general corrosion resistance to many aqueous media and, by 800HT is available in the Special Metals publication virtue of its content of nickel, resists stress corrosion for alloys 800 and 800HT on the website cracking. At elevated temperatures it offers resistance to www.specialmetals.com. oxidation, carburization, and sulfidation along with rupture Limiting chemical composition of all three alloys are and creep strength. For applications requiring greater given in Table 1. resistance to stress rupture and creep, especially at temperatures above 1500°F (816°C), INCOLOY alloys Note that the designation “800HT” is a trademark of the 800H and 800HT are used. Special Metals Corporation group of companies. The limiting chemical composition of alloy 800 is shown in Table 2. The chromium in the alloy imparts both aqueous and heat resistance. Iron provides resistance to internal oxidation. The nickel content maintains a ductile, austenitic structure. Thus, alloy 800 is readily formed, welded, and machined. 2 INCOLOY ® alloy 800 INCOLOY alloy 800 is used in a variety of applications Table 3 - Physical Constants involving exposure to corrosive environments and high temperatures. It is used for heat-treating equipment such as Density, lb/in3.............................................................................0.287 baskets, trays, and fixtures. In chemical and petrochemical g/cm3..............................................................................7.94 processing, the alloy is used for heat exchangers and other piping systems in nitric acid media especially where Melting Range, °F .............................................................2475-2525 resistance to chloride stress-corrosion cracking is required.
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