Linear Operators: General theory |
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Page 36
A linear vector space , linear space , or vector space over a field Ø is an additive
group X together with an operation m : 0 X X X , written as m ( Q , x ) = ax , which
satisfy the following four conditions : ( i ) alæ + y ) = ax + ay , AEO , X , y eX ; ( ii ) ...
A linear vector space , linear space , or vector space over a field Ø is an additive
group X together with an operation m : 0 X X X , written as m ( Q , x ) = ax , which
satisfy the following four conditions : ( i ) alæ + y ) = ax + ay , AEO , X , y eX ; ( ii ) ...
Page 250
For an arbitrary vector x in H the vector x — ( y * x ) / ( y * yılyı is in M so that ( x , y
) = y * * ( y1 , y ) / y * yı = y * x , which proves the existence of the desired y . To
see that y is unique , let y ' be an element of H such that y * x = ( x , y ' ) for every x
...
For an arbitrary vector x in H the vector x — ( y * x ) / ( y * yılyı is in M so that ( x , y
) = y * * ( y1 , y ) / y * yı = y * x , which proves the existence of the desired y . To
see that y is unique , let y ' be an element of H such that y * x = ( x , y ' ) for every x
...
Page 795
On the one - dimensional translation group and semi - group in certain function
spaces . Dissertation , University of Uppsala ( 1950 ) . Math . Rev . 12 , 108 (
1951 ) . Ogasawara , T . 1 . Compact metric Boolean algebras and vector lattices .
On the one - dimensional translation group and semi - group in certain function
spaces . Dissertation , University of Uppsala ( 1950 ) . Math . Rev . 12 , 108 (
1951 ) . Ogasawara , T . 1 . Compact metric Boolean algebras and vector lattices .
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Contents
Preliminary Concepts | 1 |
B Topological Preliminaries | 10 |
Algebraic Preliminaries | 34 |
Copyright | |
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algebra Amer analytic applied arbitrary assumed B-space Banach spaces bounded called clear closed compact operator complex condition Consequently constant contains continuous functions converges convex convex set Corollary countably additive defined DEFINITION denote dense determined differential dimensional disjoint domain element equation equivalent everywhere Exercise exists extension field finite follows formula function defined function f given Hence Hilbert space identity implies inequality integral interval Lebesgue Lemma limit linear functional linear operator linear space Math neighborhood norm operator operator topology problem projection PROOF properties proved range reflexive representation respect satisfies scalar seen semi-group separable sequence set function Show shown statement subset subspace sufficient Suppose Theorem theory topology u-measurable uniform uniformly unique unit sphere valued vector weak weakly compact zero