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ÆÄÀÏ : ¿¬¼¼´ë ¼±Çü´ë¼öÇÐ Á·º¸ 2Çбâ-¼±´ë½ÃÇè-2Â÷Áß°£-¸ð¹ü~.pdf   [Size : 102 Kbyte ]
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Problem 1. Indicate whether the statement is true(T) or (5) If A is an n¡¿n matrix, and if the linear system Ax = b is consistent for every vector b in Rn , then TA : Rn ¡æ false(F). Justify your answer. [each 3pt] (1) If T1 : R ¡æ R (F)
2 3 n m
and T2 : R
m
¡æ R are linear trans-
k
formations, and if T1 is not onto, then neither is T2 T1 . Problem 3. Determine whether the linear transformation Solve Take T1 : R ¡æ R given by T1 (x, y) = (x, y, 0) is one-to-one and/or onto. Justify ...
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Problem 1. Indicate whether the statement is true(T) or (5) If A is an n¡¿n matrix, and if the linear system Ax = b is consistent for every vector b in Rn , then TA : Rn ¡æ false(F). Justify your answer. [each 3pt] (1) If T1 : R ¡æ R (F)
2 3 n m

and T2 : R

m

¡æ R are linear trans-

k

formations, and if T1 is not onto, then neither is T2 T1 . Problem 3. Determine whether the linear transformation Solve Take T1 : R ¡æ R given by T1 (x, y) = (x, y, 0) is one-to-one and/or onto. Justify your answer. [each 5pt] and T2 : R3 ¡æ R2 given by T2 (x, y, z) = (x, y). Then (1) T : R3 ¡æ R3 , given by T (x, y, z) = (4x, 2x + y, x T is not onto, but T T is onto.
1 2 1

3y). (2) If the characteristic polynomial of A is p(¥ë) = ¥ë ¥ën1 + ¥ë, then A is a singular matrix. (T) Solve Since det(A) = (1)n p(0) = 0, A is a singular matrix. (3) If A is orthogonal, then (det(A))2 = 1. (T) Solve Since A1 = AT and det(A) = det(AT ), 1 = det(AA1 ) = det(A) det(A1 ) = (det(A))2 . (4) The dete¡¦(»ý·«)


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