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From 𝐾(𝑛+1)_{*}(𝑋) to 𝐾(𝑛)_{*}(𝑋)
Author(s) -
Norihiko Minami
Publication year - 2001
Publication title -
proceedings of the american mathematical society
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.968
H-Index - 84
eISSN - 1088-6826
pISSN - 0002-9939
DOI - 10.1090/s0002-9939-01-06374-2
Subject(s) - algorithm , artificial intelligence , annotation , computer science
Let X X be a space of finite type. Set q = 2 ( p βˆ’ 1 ) q=2(p-1) as usual, and define the mod q q support of K ( n ) βˆ— ( X ) K(n)^*(X) by S ( X , K ( n ) ) = { m ∈ Z / q Z ∣ ⨁ d ≑ m mod q Β  K ( n ) d β‰  0 } S(X,K(n)) = \{ m \in \mathbb {Z}/q\mathbb {Z} \mid \bigoplus _{d \equiv m \bmod q}\ K(n)^d \neq 0 \} for n > 0. n>0. Call K ( n ) βˆ— ( X ) K(n)^*(X) sparse if there is no m ∈ Z / q Z m \in \mathbb {Z}/q\mathbb {Z} with m , m + 1 ∈ S ( X , K ( n ) ) . m, m+1 \in S(X,K(n)). Then we show the relation S ( X , K ( n ) ) β«… S ( X , K ( n + 1 ) ) S(X,K(n)) \subseteqq S(X,K(n+1)) for any finite type space X X with K ( n + 1 ) βˆ— ( X ) K(n+1)^*(X) being sparse. As a special case, we have K ( n + 1 ) o d d ( X ) = 0 ⟹ K ( n ) o d d ( X ) = 0 , K(n+1)^{odd}(X) = 0 \Longrightarrow K(n)^{odd}(X) = 0, and the main theorem of Ravenel, Wilson and Yagita is also generalized in terms of the mod q q support.

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