
Full text
... Let Dn denote the determinant of An , and sn = x0 + x1 + · · · + xn−1 . Prove that if the xk ’s are integers such that sn 6= 0, then sn |Dn . Solution by H.-J. Seiffert, Berlin, Germany Adding the second, third, fourth, . . . and last row to the first row in Dn , we arrive to the determinant En , wh ...
... Let Dn denote the determinant of An , and sn = x0 + x1 + · · · + xn−1 . Prove that if the xk ’s are integers such that sn 6= 0, then sn |Dn . Solution by H.-J. Seiffert, Berlin, Germany Adding the second, third, fourth, . . . and last row to the first row in Dn , we arrive to the determinant En , wh ...
mgbm4e_ppt_02_04
... Multiplying Fractions and Mixed Numbers or Whole Numbers Multiplying Fractions and Mixed Numbers of Whole Numbers To multiply with mixed numbers or whole numbers, first write any mixed or whole numbers as fractions and then multiply as usual. ...
... Multiplying Fractions and Mixed Numbers or Whole Numbers Multiplying Fractions and Mixed Numbers of Whole Numbers To multiply with mixed numbers or whole numbers, first write any mixed or whole numbers as fractions and then multiply as usual. ...
Calculation Policy
... Extend to decimals in the context of money. Use a calculator to work out one-step and two-step calculations, and interpret the display correctly in the context of money. In addition, use knowledge of rounding, number operations and inverses to estimate and check calculations. ...
... Extend to decimals in the context of money. Use a calculator to work out one-step and two-step calculations, and interpret the display correctly in the context of money. In addition, use knowledge of rounding, number operations and inverses to estimate and check calculations. ...
Select the best answer
... B. the temperature on Tuesdays C. the size of a sundae and the number of calories in it. D. the size of a snowball and how ...
... B. the temperature on Tuesdays C. the size of a sundae and the number of calories in it. D. the size of a snowball and how ...
MATH 311: COMPLEX ANALYSIS — COMPLEX NUMBERS
... • Q is not complete: limits that “ought” to exist in Q fail to do so, e.g., 2. • Q is not algebraically closed: polynomials that “ought” to have solutions in Q fail to do so, e.g., X 2 + 1. The smallest complete field containing Q is the real numbers R. But R is not algebraically closed, e.g., X 2 + ...
... • Q is not complete: limits that “ought” to exist in Q fail to do so, e.g., 2. • Q is not algebraically closed: polynomials that “ought” to have solutions in Q fail to do so, e.g., X 2 + 1. The smallest complete field containing Q is the real numbers R. But R is not algebraically closed, e.g., X 2 + ...