JMMCE  Vol.9 No.12 , December 2010
An Experimental Study on Mechanical and Fracture Behavior of Phosphoric Iron
Abstract: Phosphoric iron of two different phosphorus content, namely P1 (Fe-0.30P-0.226C), P2 (Fe-0.11P-.028C) were first prepared by ingot casting route. The ingot were soaked and forged at 1150℃. The microstructures of the phosphoric iron and its relevant mechanical properties such as hardness and tensile properties have been characterized. J-R curves of the material have been determined at room temperature. Fracture behaviour under tearing load has been studied through fracture toughness tests on phosphoric iron using Compact Tension (CT) specimens of Width (W) =50 mm and thickness (B) =12.5mm. J-R curves were obtained from specimens precracked to a/W = 0.5 .The single specimen unloading compliance method have been used for generating J-R curves.
Cite this paper: A. Vishnoia, B. Mishra and S. Prakash, "An Experimental Study on Mechanical and Fracture Behavior of Phosphoric Iron," Journal of Minerals and Materials Characterization and Engineering, Vol. 9 No. 12, 2010, pp. 1087-1100. doi: 10.4236/jmmce.2010.912079.

[1]   R. Balasubrahmaniam, “On the Corrosion Resistance of the Delhi Iron Pillar”. Corrosion Science, 42(2000), Pp: 2103-2129.

[2]   G Wranglen, “The Rustless Iron Pillar at Delhi”. Corrosion Science, 10(1970),Pp: 761-770

[3]   R. balasubrahmaniam and AV Kumar.” Characterization of the DIP Rust by XRD, FTIR and Mossbauer Spectroscopy”. Corrosion science, 42(2000), Pp: 2085-2101

[4]   Gadadhar Sahoo and R. Balasubramaniam. “ Corrosion of Phosphoric Irons in Acidic Enviornments” Journal of ASTM International, 5(2008), Pp: 1-7

[5]   R Balasubrahmaniam and A V Kumar, “On the Origin of High P Content in Ancient Indian Irons.” International Journal of Metals, materials and processes, 14(2002), Pp: 1-14.

[6]   J M Capus and G Meyer, “The Mechanical Properties of Some Tempered Alloy Martensites”. Journal of the iron and steel institute, 196(1960), Pp: 149-158.

[7]   C.L. Briant and S.K.Banerji, “Phosphorus Induced 350℃ Embrittlement in an Ultrahigh-Strength Steel”, Metallurgical Transaction A: Physical Metallurgy and Materials Scince, 10 A (1979) 123-126.

[8]   R.M. Horn and R.O. Ritchie, “mechanism of tempered martensite embrittlement in low alloy steel,” Metallurgical Transaction A: Physical Metallurgy And Materials Scince, 9 A (1978) 1039-1053

[9]   J.P. materkowski and G. Krauss. “Tempered Martensite Embrittlement In SAE 4340 Steel”. Metallurgical Transaction A : Physical Metallurgy And Materials Scince 10A (1979) 1643-1651

[10]   C.J. Mcmahon Jr., American Socity Of Testing Materials, ASTM STP 407 (1968) 127.

[11]   Y.Q. Weng and C.J.Mchmanhon, “Interaction Of Phosphorus, Carbon, Manganese, And Chromium In Intergranular Embrittlement Of Iron”, Materials Science Technology, 3 (1987),207-216

[12]   M. Goodway and R.M. Fisher, “Phosphorus In Low Carbon Iron: Its Beneficial Properties”, Historical Metallurgy, 22 (1988) 21-23

[13]   ASTM E 8M-94a, “Test Methods for Tension Testing of Metallic Materials (Metric)”, Annual Book of ASTM Standards, Vol.03.01, p.81-100, ASTM, Philadelphia, PA, (1994)

[14]   ASTM E399, “Standard Test Method for Plan Strain Fracture Toughness of Metallic Materials”, Annual Book of ASTM Standards, Section 3, (1996)

[15]   H. Roy, S. Sivaprasad, S. Tarafder, K.K. Ray, “Monotonic vis-à-vis cyclic fracture behavior of AISI 304LN stainless steel”, Engineering Fracture Mechanics (2009)

[16]   ASTM E1820-08a Standard test method for Measurement of Fracture Toughness, Annual Book of ASTM Standards, Vol.03.01, p.1-34, ASTM, Philadelphia, PA, 2008

[17]   ASTM E 647-93, Standard Test Method for Measurement of Fatigue Crack Growth Rates, Annual Book of ASTM Standards, 1994, Vol.03.01, pp.569-596, ASTM, Philadelphia, PA.

[18]   Pickering F.B., [1977], “The structure and properties of banite in steels, in transformation and hardenability in Steels”, Climax Molybdenum Company of Michigan, Ann Arbor, MI, p 109-13