Theorem 3.1 . [019Z] Original official author HTML, exact retained edition. Historical TeX conversion verdicts remain unchanged. Cited-edition alignment and mathematical self-containment are not assessed.
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Theorem 3.1 .
There exists a unique operator
( φ 1 , … , φ n ) ↦ ( θ + d d c φ 1 ) ∧ ⋯ ∧ ( θ + d d c φ n ) (\varphi_{1},\dots,\varphi_{n})\mapsto(\theta+dd^{c}\varphi_{1})\wedge\dots\wedge(\theta+dd^{c}\varphi_{n})
taking an n n -tuple of bounded θ \theta -psh functions to a
positive Radon measure on X X of mass { θ } n \{\theta\}^{n}
and such that
•
the definition is compatible with the definition for θ \theta -psh model functions given in § 2.7 ;
•
for any decreasing nets of bounded θ \theta -psh functions ψ j → ψ \psi^{j}\to\psi ,
and φ i j → φ i \varphi_{i}^{j}\to\varphi_{i} for i = 1 , … , n i=1,\dots,n we have
∫ ψ j ( θ + d d c φ 1 j ) ∧ ⋯ ∧ ( θ + d d c φ n j ) ⟶ ∫ ψ ( θ + d d c φ 1 ) ∧ ⋯ ∧ ( θ + d d c φ n ) . \int\psi^{j}\,(\theta+dd^{c}\varphi_{1}^{j})\wedge\dots\wedge(\theta+dd^{c}\varphi_{n}^{j})\longrightarrow\int\psi\,(\theta+dd^{c}\varphi_{1})\wedge\dots\wedge(\theta+dd^{c}\varphi_{n}).