MAXIMUM PRINCIPLE FOR SINGULAR CONTROL PROBLEMS OF SYSTEMS DRIVEN BY MARTINGALE MEASURES

S. Labed
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Abstract

We provide necessary optimality conditions for singular controlled stochastic differential equations driven by an orthogonal continuous martingale measure. The control is allowed to enter both the drift and diffusion coefficient and has two components, the first being relaxed and the second singular, the domain of the first control does not need to be convex, and for the relaxing method, we show by a counter-example that replacing the drift and diffusion coefficients by their relaxed counterparts does not define a true relaxed control problem. The maximum principle for these systems is established by means of spike variation techniques on the relaxed part of the control and a convex perturbation on the singular one. Our result is a generalization of Peng's maximum principle to singular control problems.
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鞅测度驱动系统奇异控制问题的极大值原理
给出了由正交连续鞅测度驱动的奇异控制随机微分方程的最优性条件。该控制允许输入漂移系数和扩散系数,并有两个分量,第一个是松弛的,第二个是奇异的,第一个控制的区域不需要是凸的,对于松弛方法,我们通过一个反例表明,用松弛的漂移系数和扩散系数替换它们的松弛对应项并不能定义真正的松弛控制问题。在控制松弛部分采用尖峰变分技术,在奇异部分采用凸摄动,建立了系统的极大值原理。我们的结果是将Peng的极大值原理推广到奇异控制问题。
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