Linear Operators, Part 1 |
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Page 67
A closed linear manifold in a reflexive B - space is reflerive . Proof . Let y be a
closed linear manifold in the reflexive space X. Let 5 : x * y * be defined by the
equation $ ( x * ) y = x * y , y e Y. Clearly 15 ( x * ) = \ * , so that $ : X * → Y * . Let n
: y ...
A closed linear manifold in a reflexive B - space is reflerive . Proof . Let y be a
closed linear manifold in the reflexive space X. Let 5 : x * y * be defined by the
equation $ ( x * ) y = x * y , y e Y. Clearly 15 ( x * ) = \ * , so that $ : X * → Y * . Let n
: y ...
Page 72
I 19 If X is a reflexive B - space , and 3 is a closed subspace of X , show , using
Exercise 18 , that both 3 and X / 3 are reflexive . 220 If X is a B - space , with 3CX
, and both 3 and X 3 are reflexive , then X is reflexive . ( Hint : Given any *** e X **
...
I 19 If X is a reflexive B - space , and 3 is a closed subspace of X , show , using
Exercise 18 , that both 3 and X / 3 are reflexive . 220 If X is a B - space , with 3CX
, and both 3 and X 3 are reflexive , then X is reflexive . ( Hint : Given any *** e X **
...
Page 88
Reflexivity . The fact that the natural isomorphism of a B - space X into its second
conjugate is isometric was proved by Hahn [ 3 ; p . 219 ] who was ... He used the
term regular to describe what we , following Lorch [ 2 ] , have called reflexive .
Reflexivity . The fact that the natural isomorphism of a B - space X into its second
conjugate is isometric was proved by Hahn [ 3 ; p . 219 ] who was ... He used the
term regular to describe what we , following Lorch [ 2 ] , have called reflexive .
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Contents
Preliminary Concepts | 1 |
The VitaliHahnSaks Theorem and Spaces of Measures | 7 |
B Topological Preliminaries | 10 |
Copyright | |
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