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Page 65
14 COROLLARY . For every x + 0 in a normed linear space X , there is an æ * € X
* with 12 * 1 = 1 and æ * x = læl . PROOF . Apply Lemma 12 with Y = 0 . The x *
required in the present corollary may then be defined as a times the x * whose ...
14 COROLLARY . For every x + 0 in a normed linear space X , there is an æ * € X
* with 12 * 1 = 1 and æ * x = læl . PROOF . Apply Lemma 12 with Y = 0 . The x *
required in the present corollary may then be defined as a times the x * whose ...
Page 188
Q . E . D . As in the case of finite measure spaces we shall call the measure
space ( S , & , u ) constructed in Corollary 6 from the o - finite measure spaces ( Si
, Eis ui ) the product measure space and write ( S , E , u ) = P9 – 1 ( Si , EiMi ) .
Q . E . D . As in the case of finite measure spaces we shall call the measure
space ( S , & , u ) constructed in Corollary 6 from the o - finite measure spaces ( Si
, Eis ui ) the product measure space and write ( S , E , u ) = P9 – 1 ( Si , EiMi ) .
Page 662
2 COROLLARY . When the strong limit E = lim , A ( n ) exists it is a projection of X
upon the manifold { x | Tx = x } of fixed points of T . The complementary projection
has the closure of ( I – T ) X for its range . PROOF . Since ( I – T ) A ( n ) = ( I – Tr )
...
2 COROLLARY . When the strong limit E = lim , A ( n ) exists it is a projection of X
upon the manifold { x | Tx = x } of fixed points of T . The complementary projection
has the closure of ( I – T ) X for its range . PROOF . Since ( I – T ) A ( n ) = ( I – Tr )
...
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Contents
Metric Spaces | 19 |
Convergence and Uniform Convergence of Generalized | 26 |
Exercises | 33 |
Copyright | |
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