
doi: 10.2307/2274652
AbstractLet T be a complete countable first order theory and λ an uncountable cardinal. Theorem 1. If T is not superstable, T has 2λ resplendent models of power λ. Theorem 2. If T is strictly superstable, then T has at least min(2λ, ℶ2) resplendent models of power λ. Theorem 3. If T is not superstable or is small and strictly superstable, then every resplendent homogeneous model of T is saturated. Theorem 4 (with Knight). For each μ ∈ ω ∪ {ω, 2ω} there is a recursive theory in a finite language which has μ resplendent models of power κ for every infinite κ.
Models with special properties (saturated, rigid, etc.), resplendent models, recursive theory, complete countable first order theory, Classification theory, stability, and related concepts in model theory, superstable theory
Models with special properties (saturated, rigid, etc.), resplendent models, recursive theory, complete countable first order theory, Classification theory, stability, and related concepts in model theory, superstable theory
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