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   <subfield code="a">On the Dedekind Zeta Function. II</subfield>
   <subfield code="h">[Elektronische Daten]</subfield>
   <subfield code="c">[O. Fomenko]</subfield>
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   <subfield code="a">Let K n be a number field of degree n over ℚ. By A(x, K n ) denote the number of integral ideals of K n with norm ≤ x. For K 8 = ℚ − 1 m 4 $$ {K}_8=\mathbb{Q}\left(\sqrt{-1},\sqrt[4]{m}\right) $$ , K 8 = ℚ ε m 4 $$ {K}_8=\mathbb{Q}\left(\sqrt[4]{\varepsilon_m}\right) $$ , and K 16 = ℚ − 1 ε m 4 $$ {K}_{16}=\mathbb{Q}\left(\sqrt{-1},\sqrt[4]{\varepsilon_m}\right) $$ , where m is a positive square-free integer and ε m denotes the fundamental unit of ℚ m $$ \mathbb{Q}\left(\sqrt{m}\right) $$ , the author proves that A x K n = Λ n x + Δ x K n x K n , Δ x K n ≪ x 1 − 3 n + 2 + ε . $$ \begin{array}{cc}\hfill A\left(x,{K}_n\right)={\Lambda}_nx+\Delta \left(x,{K}_n\right)\left(x,{K}_n\right),\hfill &amp; \hfill \Delta \left(x,{K}_n\right)\ll {x}^{1-\frac{3}{n+2}+\varepsilon }.\hfill \end{array} $$ This improves earlier results of E. Landau (1917) and W. G. Nowak (Math. Nachr., 161 (1993), 59-74) for the special cases indicated. Also the author treats Titchmarch's phenomenon for ζK n (s) and large values of Δ(x, K n ). Bibliography: 26 titles.</subfield>
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