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scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept

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Page 1: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 2: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 3: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 4: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 5: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 6: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept
Page 7: scan0001 - COnnecting REpositories · STRESS ANALYSIS OF PIPING ELBOWS USING FEM Figure 8 The pipe factor is defined as k=tR/rm2 and the bend factor as b=R/rm Hence, If b is kept