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AN INTEGRATION BY PARTS FORMULA FOR STOCHASTIC HEAT EQUATIONS WITH FRACTIONAL NOISE
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作者 尹修伟 《Acta Mathematica Scientia》 SCIE CSCD 2023年第1期349-362,共14页
In this paper,we establish the integration by parts formula for the solution of fractional noise driven stochastic heat equations using the method of coupling.As an application,we also obtain the shift Harnack inequal... In this paper,we establish the integration by parts formula for the solution of fractional noise driven stochastic heat equations using the method of coupling.As an application,we also obtain the shift Harnack inequalities. 展开更多
关键词 integration by parts formula stochastic heat equations fractional Brownian motion shift Harnack inequality coupling by change of measures
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Shift Harnack inequality and integration by parts formula for semilinear stochastic partial differential equations
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作者 Shaoqin ZHANG 《Frontiers of Mathematics in China》 SCIE CSCD 2016年第2期461-496,共36页
Shift Harnack inequality and integration by parts formula are established for semilinear stochastic partial differential equations and stochastic functional partial differential equations by modifying the coupling use... Shift Harnack inequality and integration by parts formula are established for semilinear stochastic partial differential equations and stochastic functional partial differential equations by modifying the coupling used by F. -Y. Wang [Ann. Probab., 2012, 42(3): 994-1019]. Log-Harnack inequality is established for a class of stochastic evolution equations with non- Lipschitz coefficients which includes hyperdissipative Navier-Stokes/Burgers equations as examples. The integration by parts formula is extended to the path space of stochastic functional partial differential equations, then a Dirichlet form is defined and the log-Sobolev inequality is established. 展开更多
关键词 Shift Harnack inequality integration by parts formula stochasticpartial differential equation (SPDE) stochastic functional partial differentialequation (SFPDE) path space log-Sobolev inequality
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MARTINGALE REPRESENTATION AND LOGARITHMIC-SOBOLEV INEQUALITY FOR THE FRACTIONAL ORNSTEIN-UHLENBECK MEASURE 被引量:1
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作者 孙晓霞 郭峰 《Acta Mathematica Scientia》 SCIE CSCD 2021年第3期827-842,共16页
In this paper,we consider the measure determined by a fractional OrnsteinUhlenbeck process.For such a measure,we establish an explicit form of the martingale representation theorem and consequently obtain an explicit ... In this paper,we consider the measure determined by a fractional OrnsteinUhlenbeck process.For such a measure,we establish an explicit form of the martingale representation theorem and consequently obtain an explicit form of the Logarithmic-Sobolev inequality.To this end,we also present the integration by parts formula for such a measure,which is obtained via its pull back formula and the Bismut method. 展开更多
关键词 Fractional Ornstein-Uhlenbeck measure integration by parts formula martingale representation theorem Logarithmic-Sobolev inequality
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Second Order Nonlinear Evolution Inclusions Existence and Relaxation Results 被引量:5
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作者 NikolaosS.PAPAGEORGIOU NikolaosYANNAKAKIS 《Acta Mathematica Sinica,English Series》 SCIE CSCD 2005年第5期977-996,共20页
This is the first part of a work on second order nonlinear, nonmonotone evolution inclusions defined in the framework of an evolution triple of spaces and with a multivalued nonlinearity depending on both x(t) and x... This is the first part of a work on second order nonlinear, nonmonotone evolution inclusions defined in the framework of an evolution triple of spaces and with a multivalued nonlinearity depending on both x(t) and x(t). In this first part we prove existence and relaxation theorems. We consider the case of an usc, convex valued nonlinearity and we show that for this problem the solution set is nonempty and compact in C^1 (T, H). Also we examine the Isc, nonconvex case and again we prove the existence of solutions. In addition we establish the existence of extremal solutions and by strengthening our hypotheses, we show that the extremal solutions are dense in C^1 (T, H) to the solutions of the original convex problem (strong relaxation). An example of a nonlinear hyperbolic optimal control problem is also discussed. 展开更多
关键词 Evolution triple Pseudomonotone and demicontinuous operator Coercive operator L-pseudomonotonicity Upper semicontinuous and lower semicontinuous multifunction Solution set integration by parts formula Compact embedding Extremal solutions Strong relaxation Hyperbolic control system Surjective operator
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