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11: 1.13 Differential Equations
ā–ŗA solution becomes unique, for example, when w and d w / d z are prescribed at a point in D . …
12: 3.8 Nonlinear Equations
ā–ŗFor an arbitrary starting point z 0 ā„‚ , convergence cannot be predicted, and the boundary of the set of points z 0 that generate a sequence converging to a particular zero has a very complicated structure. …
13: 23.20 Mathematical Applications
ā–ŗ
23.20.4 m = { ( 3 ā¢ x 1 2 + a ) / ( 2 ā¢ y 1 ) , P 1 = P 2 , ( y 2 y 1 ) / ( x 2 x 1 ) , P 1 P 2 .
ā–ŗLet T denote the set of points on C that are of finite order (that is, those points P for which there exists a positive integer n with n ā¢ P = o ), and let I , K be the sets of points with integer and rational coordinates, respectively. …
14: 31.3 Basic Solutions
ā–ŗSolutions (31.3.1) and (31.3.5)–(31.3.11) comprise a set of 8 local solutions of (31.2.1): 2 per singular point. …
15: 4.2 Definitions
ā–ŗIn the DLMF we allow a further extension by regarding the cut as representing two sets of points, one set corresponding to the “upper side” and denoted by z = x + i ā¢ 0 , the other set corresponding to the “lower side” and denoted by z = x i ā¢ 0 . …
16: 4.13 Lambert W -Function
ā–ŗ W 0 ā” ( z ) is a single-valued analytic function on ā„‚ āˆ– ( , e 1 ] , real-valued when z > e 1 , and has a square root branch point at z = e 1 . …The other branches W k ā” ( z ) are single-valued analytic functions on ā„‚ āˆ– ( , 0 ] , have a logarithmic branch point at z = 0 , and, in the case k = ± 1 , have a square root branch point at z = e 1 āˆ“ 0 ā¢ i respectively. …
17: 15.6 Integral Representations
ā–ŗIn (15.6.2) the point 1 / z lies outside the integration contour, t b 1 and ( t 1 ) c b 1 assume their principal values where the contour cuts the interval ( 1 , ) , and ( 1 z ā¢ t ) a = 1 at t = 0 . …
18: 36.5 Stokes Sets
ā–ŗStokes sets are surfaces (codimension one) in š± space, across which ĪØ K ā” ( š± ; k ) or ĪØ ( U ) ā” ( š± ; k ) acquires an exponentially-small asymptotic contribution (in k ), associated with a complex critical point of Ī¦ K or Ī¦ ( U ) . …
19: 36.12 Uniform Approximation of Integrals
§36.12 Uniform Approximation of Integrals
ā–ŗ
§36.12(i) General Theory for Cuspoids
ā–ŗwith the K + 1 functions A ā” ( š² ) and š± ā” ( š² ) determined by correspondence of the K + 1 critical points of f and Ī¦ K . … ā–ŗFor K = 1 , with a single parameter y , let the two critical points of f ā” ( u ; y ) be denoted by u ± ā” ( y ) , with u + > u for those values of y for which these critical points are real. … ā–ŗAlso, Ī” 1 / 4 / f + ′′ and Ī” 1 / 4 / f ′′ are chosen to be positive real when y is such that both critical points are real, and by analytic continuation otherwise. …
20: 2.10 Sums and Sequences
ā–ŗAs a first estimate for large n …for any real constant Ī± and the set of all positive integers j , we derive … ā–ŗThe singularities of f ā” ( z ) on the unit circle are branch points at z = e ± i ā¢ Ī± . To match the limiting behavior of f ā” ( z ) at these points we set …and in the supplementary conditions we may set m = 1 . …