Study of Production Defects in Pure Aluminum and 3003 Aluminum Alloy by Electrical Measurements

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To Study the Defect Properties in the Crystal, it Is Necessary that they Are Present in Sufficiently High Concentration. Electrical Measurements Are Also One of the Oldest Techniques Used in Materials Science. this Paper Aims to Discuss the Possibility of Using Electrical Measurements as Diagnostic Techniques for Detecting Defects in a Set of Plastically Deformed Pure and 3003 Al Wrought Aluminum Alloys. the Results of Electrical Measurements Were Analyzed in Terms of the Variation of Resistivity. this Model Can Be Used to Investigate both the Defect and Dislocation Densities of the Samples under Investigation. Results Obtained by Means of Electrical Techniques Have Been Reported. Plastic Deformation Was Performed, and I-V Curves Were Measured in Order to Determine the Value of the Resistivity. the Values of Resistivity as a Function of Deformation and Annealing Behavior Were Studied. One of the Goals of the Work Was to Obtain the Activation Energy for the Formation of Defects by Performing Electrical Measurements on both Materials (pure Al and 3003 Al Alloys ).

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11-18

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July 2012

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] Aluminum Standards and Date . The Aluminum Association, Washington, DC (an update periodically) and American National Standard Institute ANST H35.

Google Scholar

[2] Metal and Alloys in the Unified Numbering System, 9th ed. SAE and ASTM (2001).

Google Scholar

[3] American National Standard Nomenclature System for Aluminum Metal Matrix Composite Materials,. ANSI H 35. 5, (2000).

Google Scholar

[4] Carter, G.F., Paul, D.E. (ed. )(1991), Materials Science and Engineering, ASM.

Google Scholar

[5] Harvey, P.D. (ed) (1982), Engineering Properties of Steel American Society for Metals (Metals Park, OH ).

Google Scholar

[6] L J Van der Pauw, Philips Research Reports 13 (1958) 1.

Google Scholar

[7] A A Ramadan, R D Gould and A Ashour, Thin Solid Films 239 (1994) 272.

Google Scholar

[8] A Ashour, E Badawi and N Z El-Sayed, Surface Review and Letters 13(1) (2006) 69.

Google Scholar

[9] M. Abdel-Rahman, N. A. Kamel, Yahia A. Lotfy, Emad A. Badawi and M. A. Abdel-Rahman, Defect and Diffusion Forum 278 (2008) 1.

DOI: 10.4028/www.scientific.net/ddf.278.1

Google Scholar

[10] Nasser Abdel-Azeem Kamel and Emad A. Badawi, Journal of Materials Science and Engineering, 5(4) (2011) 400.

Google Scholar

[11] Nasser Abdel-Azeem Kamel , Abdulla. A. Refeay and Emad A. Badawi, Journal of Materials Science and Engineering A, 1(3) (2011) 415.

Google Scholar

[12] Nasser Abdel-Azzem Kamel and Yahia A. Lotfy, Journal of Materials Science and Engineering A, 1(5) (2011) 711.

Google Scholar

[13] Introduction to Solid State Physics 7th ed by Kittel p.160.

Google Scholar

[14] E. A. Badawi, M. A. Abdel-Rahman and E. M. Hassan, Material Science Forum, 445-446 (2006) 45.

Google Scholar

[15] C.W. Schulte and J. L. Camble, Applied Physics, 19 (1969) 269.

Google Scholar

[16] N. L. Peterson, Journal of Nuclear Materials, 69-70 (1978) 3.

Google Scholar

[17] P. Hautojarvi, Positrons in Solids, Topics in Current Physics, 12, Berlin (1979).

Google Scholar