Trace Expansions and the Noncommutative Residue for Manifolds with Boundary
نویسندگان
چکیده
For a pseudodifferential boundary operator A of order ν ∈ Z and class 0 (in the Boutet de Monvel calculus) on a compact n-dimensional manifold with boundary, we consider the function Tr(AB−s), where B is an auxiliary system formed of the Dirichlet realization of a second order strongly elliptic differential operator and an elliptic operator on the boundary. We prove that Tr(AB−s) has a meromorphic extension to C with poles at the half-integers s = (n+ ν− j)/2, j ∈ N (possibly double for s < 0), and we prove that its residue at 0 equals the noncommutative residue of A, as defined by Fedosov, Golse, Leichtnam and Schrohe by a different method. To achieve this, we establish a full asymptotic expansion of Tr(A(B−λ)−k) in powers λ−l/2 and log-powers λ−l/2 log λ, where the noncommutative residue equals the coefficient of the highest order log-power. There is a related expansion of Tr(Ae−tB). The paper will appear in Journal Reine Angew. Math. (Crelle’s Journal).
منابع مشابه
Noncommutative Residues, Dixmier’s Trace, and Heat Trace Expansions on Manifolds with Boundary
For manifolds with boundary, we define an extension of Wodzicki’s noncommutative residue to boundary value problems in Boutet de Monvel’s calculus. We show that this residue can be recovered with the help of heat kernel expansions and explore its relation to Dixmier’s trace.
متن کاملNoncommutative Residue for Heisenberg Manifolds. I.
In this paper we construct a noncommutative residue for the Heisenberg calculus, that is, for the hypoelliptic calculus on Heisenberg man-ifolds, including on CR and contact manifolds. This noncommutative residue as the residual induced on operators of integer orders by the analytic extension of the usual trace to operators of non-integer orders and it agrees with the integral of the density de...
متن کاملS ep 2 00 6 Gravity and the Noncommutative Residue for Manifolds with Boundary ∗
We prove a Kastler-Kalau-Walze type theorem for the Dirac operator and the signature operator for 3, 4-dimensional manifolds with boundary. As a corollary, we give two kinds of operator theoretic explanations of the gravitational action in the case of 4-dimensional manifolds with flat boundary. Subj. Class.: Noncommutative global analysis; Noncommutative differential geometry. MSC: 58G20; 53A30...
متن کاملS ep 2 00 6 Differential Forms and the Wodzicki Residue for Manifolds with Boundary ∗
In [3], Connes found a conformal invariant using Wodzicki’s 1-density and computed it in the case of 4-dimensional manifold without boundary. In [14], Ugalde generalized the Connes’ result to n-dimensional manifold without boundary. In this paper, we generalize the results of [3] and [14] to the case of manifolds with boundary. Subj. Class.: Noncommutative global analysis; Noncommutative differ...
متن کاملThe Local and Global Parts of the Basic Zeta Coefficient for Pseudodifferential Boundary Operators
For operators on a compact manifold X with boundary ∂X, the basic zeta coefficient is the regular value at s = 0 of the zeta function Tr(BP 1,T ), where B = P+ + G is a pseudodifferential boundary operator (in the Boutet de Monvel calculus), and P1,T is a realization of an elliptic differential operator P1, having a ray free of eigenvalues. In the case ∂X = ∅, Paycha and Scott showed how the ba...
متن کامل