<p>Let <i>R</i> be a commutative ring with identity and <i>m</i>, <i>n</i> be positive integers. We introduce the class of (<i>m</i>, <i>n</i>)-prime ideals which lies properly between the classes of prime and (<i>m</i>, <i>n</i>)-closed ideals. A proper ideal <i>I</i> of <i>R</i> is called (<i>m</i>, <i>n</i>)-prime if for <i>a</i>, <i>b</i> ∈ <i>R</i>, <i>a</i><sup><i>m</i></sup><i>b</i> ∈ <i>I</i> implies either <i>a</i><sup><i>n</i></sup> ∈ <i>I</i> or <i>b</i> ∈ <i>I</i>. Several characterizations of this new class with many examples are given. Analogous to primary decomposition, we define the (<i>m</i>, <i>n</i>)-decomposition of ideals and show that every ideal in an <i>n</i>-Noetherian ring has an (<i>m</i>, <i>n</i>)-decomposition. Furthermore, the (<i>m</i>, <i>n</i>)-prime avoidance theorem is proved.</p>

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(m, n)-prime ideals of commutative rings

  • Hani A. Khashan,
  • Ece Yetkin Çelikel

摘要

Let R be a commutative ring with identity and m, n be positive integers. We introduce the class of (m, n)-prime ideals which lies properly between the classes of prime and (m, n)-closed ideals. A proper ideal I of R is called (m, n)-prime if for a, bR, ambI implies either anI or bI. Several characterizations of this new class with many examples are given. Analogous to primary decomposition, we define the (m, n)-decomposition of ideals and show that every ideal in an n-Noetherian ring has an (m, n)-decomposition. Furthermore, the (m, n)-prime avoidance theorem is proved.