Linear operators. 2. Spectral theory : self adjoint operators in Hilbert Space |
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Page 1196
bounded Borel functions into an algebra of normal operators in Hilbert space and thus the above formula defines an ... the self adjoint operator T and let | be a complex Borel function defined E - almost everywhere on the real axis .
bounded Borel functions into an algebra of normal operators in Hilbert space and thus the above formula defines an ... the self adjoint operator T and let | be a complex Borel function defined E - almost everywhere on the real axis .
Page 1548
n 1 2 τ extensions of S and Ŝ respectively , and let 2 , ( T ) and an ( Î ) be the numbers defined for the self ... and let T , be a self adjoint operator in Hilbert space Hz . Define the operator T in H = H , H2 by setting D ( T ) D ...
n 1 2 τ extensions of S and Ŝ respectively , and let 2 , ( T ) and an ( Î ) be the numbers defined for the self ... and let T , be a self adjoint operator in Hilbert space Hz . Define the operator T in H = H , H2 by setting D ( T ) D ...
Page 1647
In connection with Definition 4 , it should be noted that two continuous functions defined in I which differ at most on a Lebesgue null set are in fact everywhere identical . Thus , by Lemma 3 , a distribution F corresponds to a unique ...
In connection with Definition 4 , it should be noted that two continuous functions defined in I which differ at most on a Lebesgue null set are in fact everywhere identical . Thus , by Lemma 3 , a distribution F corresponds to a unique ...
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