Abstract:We construct a family of quasimetric spaces in generalized potential theory containing m-subharmonic functions with finite (p, m)-energy. These quasimetric spaces will be viewed both in $${\mathbb {C}}^n$$
C
n
and in compact Kähler manifolds, and their convergence will be used to improve known stability results for the complex Hessian equations.
“…, then it follows from [6] that (E p,m (Ω), J p ) is a complete quasimetric space. We shall as well need the following comparison principle from [26].…”
Section: Stabilitymentioning
confidence: 99%
“…, where u, v ∈ E p,m (Ω), p > 0. In [6], it was proved that (E p,m (Ω), J p ) is a complete quasimetric space. Furthermore, convergence in (X, J p ) implies convergence in capacity, and in L q -norm, but the converse is not true.…”
We raise our cups to Urban Cegrell, gone but not forgotten, gone but ever here.Until we meet again in Valhalla!Abstract. This note aims to investigate the regularity of a solution to the Dirichlet problem for the complex Hessian equation, which has a density of the m-Hessian measure that belongs to L q , for q ≤ n m .
“…, then it follows from [6] that (E p,m (Ω), J p ) is a complete quasimetric space. We shall as well need the following comparison principle from [26].…”
Section: Stabilitymentioning
confidence: 99%
“…, where u, v ∈ E p,m (Ω), p > 0. In [6], it was proved that (E p,m (Ω), J p ) is a complete quasimetric space. Furthermore, convergence in (X, J p ) implies convergence in capacity, and in L q -norm, but the converse is not true.…”
We raise our cups to Urban Cegrell, gone but not forgotten, gone but ever here.Until we meet again in Valhalla!Abstract. This note aims to investigate the regularity of a solution to the Dirichlet problem for the complex Hessian equation, which has a density of the m-Hessian measure that belongs to L q , for q ≤ n m .
By using quasi-Banach techniques as key ingredient we prove Poincaré-and Sobolev-type inequalities for m-subharmonic functions with finite (p, m)-energy. A consequence of the Sobolev type inequality is a partial confirmation of B locki's integrability conjecture for msubharmonic functions. Mathematics Subject Classification. Primary 35J60, 46E35, 26D10; Secondary 32U05, 31C45.
“…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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