{ "id": "1101.3504", "version": "v4", "published": "2011-01-18T17:15:20.000Z", "updated": "2012-02-17T20:23:43.000Z", "title": "Maximal $L^p$-regularity for stochastic evolution equations", "authors": [ "Jan van Neerven", "Mark Veraar", "Lutz Weis" ], "comment": "Accepted for publication in SIAM Journal on Mathematical Analysis", "categories": [ "math.PR", "math.FA" ], "abstract": "We prove maximal $L^p$-regularity for the stochastic evolution equation \\[\\{{aligned} dU(t) + A U(t)\\, dt& = F(t,U(t))\\,dt + B(t,U(t))\\,dW_H(t), \\qquad t\\in [0,T], U(0) & = u_0, {aligned}.\\] under the assumption that $A$ is a sectorial operator with a bounded $H^\\infty$-calculus of angle less than $\\frac12\\pi$ on a space $L^q(\\mathcal{O},\\mu)$. The driving process $W_H$ is a cylindrical Brownian motion in an abstract Hilbert space $H$. For $p\\in (2,\\infty)$ and $q\\in [2,\\infty)$ and initial conditions $u_0$ in the real interpolation space $\\XAp $ we prove existence of unique strong solution with trajectories in \\[L^p(0,T;\\Dom(A))\\cap C([0,T];\\XAp),\\] provided the non-linearities $F:[0,T]\\times \\Dom(A)\\to L^q(\\mathcal{O},\\mu)$ and $B:[0,T]\\times \\Dom(A) \\to \\g(H,\\Dom(A^{\\frac12}))$ are of linear growth and Lipschitz continuous in their second variables with small enough Lipschitz constants. Extensions to the case where $A$ is an adapted operator-valued process are considered as well. Various applications to stochastic partial differential equations are worked out in detail. These include higher-order and time-dependent parabolic equations and the Navier-Stokes equation on a smooth bounded domain $\\OO\\subseteq \\R^d$ with $d\\ge 2$. For the latter, the existence of a unique strong local solution with values in $(H^{1,q}(\\OO))^d$ is shown.", "revisions": [ { "version": "v4", "updated": "2012-02-17T20:23:43.000Z" } ], "analyses": { "subjects": [ "60H15", "35D10", "35R60", "46B09", "47D06", "47A60" ], "keywords": [ "stochastic evolution equation", "regularity", "unique strong local solution", "stochastic partial differential equations", "abstract hilbert space" ], "note": { "typesetting": "TeX", "pages": 0, "language": "en", "license": "arXiv", "status": "editable", "adsabs": "2011arXiv1101.3504V" } } }