WIRTHS, Integral means and Dirichlet integral for analytic functions, Math.
in Section 2, before we present our main results, we first establish a sufficient condition for univalence for functions in A(p) and we feel that it will be useful to present the absolute estimates for the Dirichlet integrals [DELTA](r, f) and [DELTA](r, f /z) for f [member of] [SIGMA](p) and 0 < r < p.
We have used as the velocity field of a fluid the functional form derived in Casuso (2007), obtained by studying the origin of turbulence as a consequence of a new description of the density distribution of matter as a modified discontinuous Dirichlet integral
. As an interesting result we have found that this functional form for velocities is a solution to the Navier-Stokes equation when considering asymptotic behaviour, i.e.
Topics include a review of preliminaries such as continuous and Holder continuous functions, Sobolev spaces and convex analysis; classical methods such as Euler-Lagrange equations; direct methods such as the Dirichlet integral
; regularity, such as the one-dimensinal case; minimal surfaces such as in the Douglas- Courant-Tonelli method; and isoperimetric inequality.
Sobel, Uppuluri, and Frankowski  tabulated, to 10D, the incomplete Dirichlet integral of Type 1:
Sobel, Uppuluri, and Frankowski  tabulated the incomplete Dirichlet integrals of Type 2:
By a solution of (1.1) we understand a function u [member of] [C.sup.1](a, b) such that [rho][phi](u') [member of] [C.sup.1](a, b), the equation in (1.1) holds at every point, the boundary conditions are satisfied and the Dirichlet integral
[[integral].sup.b.sub.a] [rho](t) [[absolute value of u'(t)].sup.p] dt is finite.
The modulus of a quadrilateral and Dirichlet integrals. One can express the modulus of a quadrilateral (D; [z.sub.1], [z.sub.2], [z.sub.3], [z.sub.4]) in terms of the solution of the Dirichlet-Neumann problem as follows.
The modulus of a ring domain and Dirichlet integrals. Let E and F be two disjoint compact sets in the extended complex plane C[infinity].
Japanese mathematicians Fukushima (Osaka U.), Yoichi Oshima (Kumamato U.), and Masayoshi Takeda (Tohoku U.) begin with an introductory and comprehensive account of the theory of (symmetric) Dirichlet forms, which they explain as an axiomatic extension of the classical Dirichlet integrals
in the direction of Markovian semigroups.