As part of a wider archeometallurgical investigation the present paper records the results of mechanical tests on iron–phosphorus alloys, which were important in early iron usage. Phosphorus increases the yield and ultimate tensile strengths with a corresponding reduction in ductilities as measured by elongation and reduction in area, to a point where brittle failure occurs. However, the work hardening exponent is only slightly decreased and some cold working, as in drawing, can be achieved. The presence of carbon complicates these effects.
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References
1.
STEADJ. E.: J. Iron Steel Inst., 1918, 97, 389–415.
2.
ROSTOKERW. and BRONSONB.: ‘Pre-industrial iron - its technology and ethnology’, Archeomaterials Monograph No. 1; 1990, Philadelphia, PA, University of Pennsylvania.
3.
WIEMERK.: ‘Early British iron edged tools - a metallurgical survey’, PhD thesis, University of Cambridge, 1993.
4.
GOODWAYM. and FISHERR. M.: Hist. Metall., 1988, 22, 21–23.
5.
BOYERH. E. and GALLT. L. (eds.): ‘Metals handbook’,10th edn,Vol. 1,144; 1990, Materials Park, OH, ASM International.
6.
MCDONNELLG.: World Archaeol., 1989, 20, 373–382.
7.
TYLECOTER. F.: ‘The prehistory of metallurgy in the British Isles’: 1986, London, The Institute of Metals.
8.
PERCYJ.: ‘Metallurgy - iron and steel’: 1864, London, John Murray.
9.
CLARKEB. D. and MCIVORI. D.: Ironmaking Steelmaking, 1989, 16, 335–344.
10.
ALLENN. P.: in ‘Iron and its dilute solid solutions’, (ed. SpencerC. W. and WernerF. E.), 271-308; 1963, New York, Wiley-Interscience.
11.
WENGY.-Q. and MCMAHONC. J.: Mater. Sci. Technol., 1987, 3, 207–216.
12.
HÄNSELH. and GRABKEH. J.: Scr. Metall., 1986, 20, 1641–1644.
13.
INMANM. C. and TIPLERH. R.: Acta Metall., 1958, 6, 73–84.
14.
MENYHARDM.: Scr. Metall., 1992, 26, 1695–1700.
15.
SAKURAIT., KUKY., BIRCHENALLA. K., PICKERINGH. W., and GRABKEH. J.: Scr. Metall., 1981, 15, 535–538.
16.
HOPKINSB. E. and TIPLERH. R.: J. Iron Steel Inst., 1958, 188, 218–237.