“…Thanks to the argument before Theorem 4, the m-superHessian operator T ∧β n−m ∧(dd # ϕ) m+p−n is a well defined positive measure provided that ϕ is m-convex and bounded near ∂Ω ∩ Supp T . Hence, inspired by the work of Elkhadhra [7], we state the following definition:…”
Section: Proof (1) Using Induction It Suffices To Prove Thatmentioning
confidence: 99%
“…Observe that ν m T (ϕ) measure the asymptotic behaviour of the current T ∧β n−m ∧(dd # ϕ) m+p−n near the m-polar set {ϕ = −∞}. Moreover, this notion is a real Hessian version of the definition of generalized Lelong number given by Elkhadhra [7] in the complex Hessian setting. Proposition 6.…”
Section: Proof (1) Using Induction It Suffices To Prove Thatmentioning
In this study, we first define the local potential associated to a positive closed supercurrent in analogy to the one investigated by Ben Massaoud and El Mir. Next, we study the definition and the continuity of the m-superHessian operator for unbounded m-convex functions. As an application, we generalize our work on Demailly-Lelong numbers and several related results in the superformalism setting. Furthermore, strongly inspired by the complex hessian theory, we introduce the Cegrell-type classes as well as a generalization of some m-potential results in the class of m-convex functions.
“…Thanks to the argument before Theorem 4, the m-superHessian operator T ∧β n−m ∧(dd # ϕ) m+p−n is a well defined positive measure provided that ϕ is m-convex and bounded near ∂Ω ∩ Supp T . Hence, inspired by the work of Elkhadhra [7], we state the following definition:…”
Section: Proof (1) Using Induction It Suffices To Prove Thatmentioning
confidence: 99%
“…Observe that ν m T (ϕ) measure the asymptotic behaviour of the current T ∧β n−m ∧(dd # ϕ) m+p−n near the m-polar set {ϕ = −∞}. Moreover, this notion is a real Hessian version of the definition of generalized Lelong number given by Elkhadhra [7] in the complex Hessian setting. Proposition 6.…”
Section: Proof (1) Using Induction It Suffices To Prove Thatmentioning
In this study, we first define the local potential associated to a positive closed supercurrent in analogy to the one investigated by Ben Massaoud and El Mir. Next, we study the definition and the continuity of the m-superHessian operator for unbounded m-convex functions. As an application, we generalize our work on Demailly-Lelong numbers and several related results in the superformalism setting. Furthermore, strongly inspired by the complex hessian theory, we introduce the Cegrell-type classes as well as a generalization of some m-potential results in the class of m-convex functions.
“…Pluripotential theory for m-subharmonic functions developed rapidly in last two decades, and there are vast literatures (cf. [1,2,8,10,12,13,15,17,19,20,22,23,25,26,30] and references therein).…”
Many aspects of pluripotential theory are generalized to quaternionic m-subharmonic functions. We introduce quaternionic version of notions of the m-Hessian operator, m-subharmonic functions, m-Hessian measure, m-capapcity, the relative m-extremal function and the m-Lelong number, and show various propositions for them, based on d 0 and d 1 operators, the quaternionic counterpart of ∂ and ∂, and quaternionic closed positve currents. The definition of quaternionic m-Hessian operator can be extended to locally bounded quaternionic m-subharmonic functions and the corresponding convergence theorem is proved. The comparison principle and the quasicontinuity of quaternionic m-subharmonic functions are established. We also find the fundamental solution of the quaternionic m-Hessian operator.
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