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Aluminum A108

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Journal Articles
Alloy Digest (1966) 15 (2): Al-152.
Published: 01 February 1966
... ALUMINUM A108 is a non-heat treatable permanent mold aluminum casting alloy havinng good casting characteristics and pressure tightness. It is recommended for general purpose castings. This datasheet provides information on composition, physical properties, hardness, elasticity, tensile properties...
Journal Articles
Alloy Digest (1976) 25 (7): Al-224.
Published: 01 July 1976
... in the solution-treated-and-aged condition. Specification Equivalents: Sand Casting: AA No. 308.0 (Former designation A108). Permanent-Mold Castings: AA No. 308.0 (Former desig- nation Al 08); Federal QQ-A-596d, 308.0(5). Ingots: AA 308.1 (Former designation A108); QQ- A-37le, 308.1 (A108). Note: AA = Aluminum...
Journal Articles
Alloy Digest (1975) 24 (2): Al-213.
Published: 01 February 1975
... FEDERATED F450 is a heat-treatable sand and permanent-mold aluminum casting alloy with good casting characteristics and pressure tightness. It is recommended for general-purpose castings. This datasheet provides information on composition, physical properties, hardness, elasticity, and tensile...
Journal Articles
Alloy Digest (1988) 37 (2): CS-119.
Published: 01 February 1988
... toots, spinning tools, die- formed cams. permanent mold castings. small and large cores for castings of aluminum. magnesium and zinc. trimming dies. and gates in investment castings. Manufacturer: Practically all carbon steel mills and foundries. ...
Journal Articles
Alloy Digest (1972) 21 (8): CS-48.
Published: 01 August 1972
... pressure vessels, contour-roll-formed parts, cold-extruded parts, case-hardened parts, chain and sprocket assemblies, blanking dies, explosive forming tools, press-brake forming tools, spinning tools, die-formed cams, per- manent mold castings, small and large cores for castings of aluminum, magnesium...
Journal Articles
Alloy Digest (2022) 71 (11): CS-235.
Published: 01 November 2022
...: normalized. Source: Ref 14 265 38 440 64 27 123 183 Material designation: SWCH22A (aluminum-killed steel) and SWCH22K (killed steel). Product form: wire. Treatment condition: process D(a). Source: Ref 10 4.00 0.118 0.157 690 100 45 3.00 4.00 5.00 0.157...
Journal Articles
Alloy Digest (2022) 71 (1): CS-214.
Published: 01 January 2022
... by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 24 Table 1 Physical properties Property Liquidus temperature Density Coefficient...
Journal Articles
Alloy Digest (2022) 71 (12): CS-237.
Published: 01 December 2022
... can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 17 Corrosion in Fresh Water. The average corrosion rate...
Journal Articles
Alloy Digest (2022) 71 (12): CS-236.
Published: 01 December 2022
... exposed for two years at various locations in the United States and Canada are given in Table 6. Source: Ref 14 15 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium and indium. The degree...
Journal Articles
Alloy Digest (2022) 71 (6): CS-224.
Published: 01 June 2022
... Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 23 Corrosion in Fresh Water...
Journal Articles
Alloy Digest (2022) 71 (6): CS-225.
Published: 01 June 2022
... are given in Table 8. Source: Ref 21 22 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher...
Journal Articles
Alloy Digest (2022) 71 (1): CS-215.
Published: 01 January 2022
... States and Canada are given in Table 10. Source: Ref 23 24 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium and indium. The degree of embrittlement is greater for steels that have been heat treated...
Journal Articles
Alloy Digest (2022) 71 (3): CS-218.
Published: 01 March 2022
... Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 21 Table 1 Physical...
Journal Articles
Alloy Digest (2022) 71 (3): CS-219.
Published: 01 March 2022
... locations in the United States and Canada are given in Table 7. Source: Ref 20 21. Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels...
Journal Articles
Alloy Digest (2022) 71 (5): CS-223.
Published: 01 May 2022
... Compatibility of non-alloy steels with selected corrodents Environment(a) Acetaldehyde Acetic acid, all concentrations Acetic acid vapors Acetone Aluminum chloride, dry Aluminum fluoride Ammonium chloride Ammonium hydroxide, 25% Aqua regia, 3:1 Benzene Boric acid Bromine gas, dry Bromine gas, moist Calcium...
Journal Articles
Alloy Digest (2022) 71 (9): CS-231.
Published: 01 September 2022
... throughout the world. The average corrosion rates of non-alloy steel specimens which were exposed for two years at various locations in the United States and Canada are given in Table 7. Source: Ref 19 20 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze...
Journal Articles
Alloy Digest (2022) 71 (11): CS-234.
Published: 01 November 2022
... locations in the United States and Canada are given in Table 6. Source: Ref 18 19 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, Table 1 Physical properties Property Liquidus temperature Density Coefficient of linear thermal expansion...
Journal Articles
Alloy Digest (2022) 71 (7): CS-226.
Published: 01 July 2022
... rates of non-alloy steel specimens which were exposed for two years at various locations in the United States and Canada are given in Table 7. Source: Ref 17 18 Liquid-Metal Corrosion. Non-alloy steels can be embrittled by contact with liquid brass, aluminum bronze, copper, zinc, lead-tin solders...
Journal Articles
Alloy Digest (2022) 71 (7): CS-227.
Published: 01 July 2022
... with liquid brass, aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium, and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 25 Table 1 Physical properties Property Liquidus temperature Density Coefficient of linear...
Journal Articles
Alloy Digest (2022) 71 (2): CS-216.
Published: 01 February 2022
..., aluminum bronze, copper, zinc, lead-tin solders, lithium, cadmium and indium. The degree of embrittlement is greater for steels that have been heat treated to produce higher strength. Source: Ref 22 Corrosion in Fresh Water. The average corrosion rate of nonalloy steels in stagnant air-saturated soft...