Linear Operators, Part 1 |
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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 ( a , x ) = ax , which
satisfy the following four conditions : ( i ) a ( x + y ) = axtay , ( ii ) ( a + b ) x = 0.
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 ( a , x ) = ax , which
satisfy the following four conditions : ( i ) a ( x + y ) = axtay , ( ii ) ( a + b ) x = 0.
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and if T ( x + y ) = Tx + Ty , T ( x ) = aTx for every a € 0 and every pair x , y of
vectors in the domain of T. Thus a linear ... If X is a vector space , if A CX , and if a
is a scalar , the symbol aA is written for the set of elements of the form ax with x in
A. If ...
and if T ( x + y ) = Tx + Ty , T ( x ) = aTx for every a € 0 and every pair x , y of
vectors in the domain of T. Thus a linear ... If X is a vector space , if A CX , and if a
is a scalar , the symbol aA is written for the set of elements of the form ax with x in
A. If ...
Page 250
For an arbitrary vector x in H the vector x— ( y * x ) / ( y * yılyı is in M so that ( x , y )
= y * x ( yı , y ) / y * yı = y * r , 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 * x ( yı , y ) / y * yı = y * r , 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 ...
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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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