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Copper alloy no. 865

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Journal Articles
Alloy Digest (1977) 26 (11): Cu-344.
Published: 01 November 1977
... Copper Alloy No. 865 is a copper-zinc-aluminum-iron-manganese alloy that is classified as high-strength yellow brass. It has a tensile strength about 20,000 psi greater than that of the corresponding copper-zinc (yellow brass) alloy; however, it is around the low-strength end of the manganese...
Journal Articles
Alloy Digest (2017) 66 (10): Cu-865.
Published: 01 October 2017
... modulus, GPa (106 psi) 130 (18.85) Copyright © 2017, ASM International®. All rights reserved. KEMPER KHP®7025 (Copper Zirconium Alloy) Filing Code: Cu-865 Copper :: October 2017 Materials Park, Ohio 44073-0002 :: 440.338.5151 :: Fax 440.338.8542 :: www.asminternational.org :: MemberServiceCenter...
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Alloy Digest (1975) 24 (11): Cu-303.
Published: 01 November 1975
...), ft-lb 71000 28000 30 130 20000 32 Table 2 - MECHANICAL PROPERTY REQUIREMENTS (As specified in ASTM B 147 for Copper Alloy No. 865 whose composition range covers Atlantic 8A alloy) Tensile strength, min, psi 65000 Yield strength (0.2% offset), min, psi 25000 Elongation (2 in min, % 20 Heat Treatment...
Journal Articles
Alloy Digest (1979) 28 (3): Cu-369.
Published: 01 March 1979
... AMPCOLOY 62 is a cast copper-base alloy known as low-tensile manganese bronze. Despite the fact that it is at the low-strength end of the manganese bronzes, it has a tensile strength about 20,000 psi greater than that of the corresponding copper-zinc alloys; therefore, it is often classified...
Journal Articles
Alloy Digest (1990) 39 (2): Cu-550.
Published: 01 February 1990
... Copper Alloy No. 61900 is an aluminum bronze with nominal 9% aluminum and 3.5% iron. It has excellent hot working characteristics and fair capacity for cold work. It is not hardenable by heat treatment. This datasheet provides information on composition, physical properties, hardness, elasticity...
Journal Articles
Alloy Digest (2013) 62 (6): Cu-821.
Published: 01 June 2013
... MemberServiceCenter@asminternational.org Fax 440-338-8542 www.asminternational.org Filing Code: Copper June 2013 Cu-821 BrushForm 65 is designed for both superior performance and high reliability in appliance, automotive, and computer power applications. Alloy BF- 65 s combination of properties limits power loss...
Journal Articles
Alloy Digest (1993) 42 (10): Cu-590.
Published: 01 October 1993
... COPPER ALLOY NO. C11100 is commonly called anneal-resistant electrolytic copper. It offers resistance to softening at slightly elevated temperatures by the addition of cadmium, which raises the temperature at which recovery and recrystallization occur. Its fabricating characteristics are the same...
Journal Articles
Alloy Digest (2008) 57 (12): Cu-763.
Published: 01 December 2008
... on forming, heat treating, machining, and joining. Filing Code: CU-763. Producer or source: Ansonia Copper & Brass Inc. Producer or Source: Ansonia Copper & Brass Inc. Copyright © ASM International® 2008 2008 ASM International ANSONIA ALLOY C67500 ANSONIA ALLOY C67600 chemical...
Journal Articles
Alloy Digest (2007) 56 (7): Ni-653.
Published: 01 July 2007
... Langalloy K-500 is a nickel-copper alloy with both aluminum and titanium additions for age hardening. The additions give the alloy high strength and hardness. The alloy has excellent corrosion resistance along with resistance to chloride stress corrosion, high fatigue resistance in sea water...
Journal Articles
Alloy Digest (2020) 69 (10): SA-865.
Published: 01 October 2020
... Composition Composition, wt%(a) Element 20MnCr5 (1.7147) 20MnCrS5 (1.7149)(b) Carbon 0.17 0.22 0.17 0.22 Silicon(c) 0.15 0.40 0.15 0.40 Manganese 1.10 1.40 1.10 1.40 Phosphorus 0.025 0.025 Sulfur 0.035 0.020 0.040 Chromium 1.00 1.30 1.00 1.30 Copper 0.40 0.40 Iron bal bal (a) Maximum values unless indicated...
Journal Articles
Alloy Digest (2008) 57 (6): Al-414.
Published: 01 June 2008
... and ordinance industries because of its superior strength. Chemical Composition, wt Silicon 0.10 max Iron 0.12 max Copper 1.2 1.9 Manganese 0.60 max Magnesium 1.9 2.6 Chromium 0.18 0.25 Zinc 5.2 6.2 Others, each 0.05 Others, total 0.15 Aluminum bal Physical Properties: Density, nominal, 20 °C (68 °F), kg/m3 (lb...
Journal Articles
Alloy Digest (2007) 56 (12): Ti-144.
Published: 01 December 2007
... tensile properties TIMETAL 230 workability thermal properties UNS R56260 Chemical Composition, wt Copper 2.00 3.00 Iron 0.20 max Oxygen 0.20 max Carbon 0.08 max Nitrogen 0.03 max Hydrogen 0.01 max Residual elements, each 0.10 max Residual elements, total 0.40 max Titanium bal TIMETAL® 230 Filing...
Journal Articles
Alloy Digest (2008) 57 (1): SS-1006.
Published: 01 January 2008
...-PLUS chemical composition creep properties fatigue properties fracture toughness joinability microstructure physical properties tensile properties Chemical Composition, wt (Nominal) CF8C-Plus CF8C Copper 0.08 0.1 Silicon 0.5 1.0 Manganese 4.0 1.0 Chromium 19.0 19.0 Molybdenum 0.3 0.3 Nickel...
Journal Articles
Alloy Digest (1956) 5 (4): Ni-25.
Published: 01 April 1956
... or an equaUy snimbie cquivaknu 5.~lPminorionsorpnmshooldbcpadttdinacomplmly weIded box, the only openings in which are two pipes fortheingressandegmssofthehydrogen. 6.Theatmosphereshouldhepnredryhydrogen,aspr+ duced by the eIearoIytic process, passed over a copper or palhkm catalyst and the moisture removed...
Journal Articles
Alloy Digest (2020) 69 (5): SA-862.
Published: 01 May 2020
... 0.41 0.34 0.41 Silicon 0.10 0.40(c) 0.10 0.40(c) Manganese 0.60 0.90 0.60 0.90 Phosphorus 0.025 0.025 Sulfur 0.035 0.020 0.040 Chromium 0.90 1.20 0.90 1.20 Copper 0.40 0.40 Iron bal bal Source: Lucefin Group and EN ISO 683-2:2018. (a) Maximum values unless indicated otherwise. (b) Where improved...
Journal Articles
Alloy Digest (2021) 70 (9): CS-212.
Published: 01 September 2021
... 0.045 0.60 0.90 0.60 0.90 Transformation Temperatures Molybdenum 0.40 Nickel 0.10 0.025 0.025 Transformation temperature, in °C (°F) Copper 0.40 Iron 0.30 0.035 0.020 0.040 Ac1 Ac3 Ms bal 0.40 0.40 730 (1346) 765 (1409) 300 (572) 0.10 0.10 Normalizing. Heat to 825 865 °C (1515 1590 °F). Wait...
Journal Articles
Alloy Digest (2022) 71 (9): CS-231.
Published: 01 September 2022
..., copper, zinc, lead-tin solders, lithium, cadmium and indium. The degree Table 1 Physical properties Property Liquidus temperature Density Coefficient of linear thermal expansion Thermal conductivity Specific heat capacity Electrical resistivity Electrical conductivity Unit °C (°F) kg/m3 (lb/in.3) 10 6/K...
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-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...