When [beta] [right arrow] 0, the
metric function (4) takes the form f(r) = 1 - 2M/r; that is, we get the Schwarzschild black hole geometry.
Since it is the routing
metric function to reduce the sum [summation][IRU.sub.l], when using 5MHz channel width, MIC favors to choose links with greater transmission range and that use modulations that transmit smaller number of bits per symbol.
The
metric function of the bit vector b in the log-domain is described as
In the literature, to correct the proof of Branciari [1], some authors assume some superfluous conditions such as Hausdorffness of the induced topology of generalized metric space and continuity of generalized
metric function. Inspired by the interesting papers of [3,4] we prove the analog of Banach fixed point theorem in the context of generalized metric space without any further condition.
Assuming, for any path a, its metric is defined by a
metric function W(a) and the concatenation of two paths a and b is denoted by a + b, the
metric function W(-) is isotonic if W(a) [less than or equal to] W(b) implies both W(a + c) [less than or equal to] W(b + c) and W(c' + a) [less than or equal to] W(c' + b), for all a, b, c, c'.
In this paper, we introduce a partial ordering on dualistic partial metric spaces utilizing partial
metric function and use the same to prove a fixed point theorem for single valued nondecreasing mappings on ordered dualistic partial metric spaces.
Finslerian
metric function of totally anisotropic type.
As we known, a set M associative a function [rho]: M x M [right arrow] [R.sup.+] = {x | x [member of] R, x [greater than or equal to] 0} is called a metric space if for [for all]x, y, z [member of] M, the following conditions for the
metric function [rho] hold:
The Heun functions, either general or confluent, are main targets of recent investigations and have been obtained for massless particles evolving in a Universe described by the
metric function written as a nonlinear mixture of Schwarzschild, Melvine, and Bertotti-Robinson solutions [11].
A spherical
metric function g(r) in (2) in the asymptotically flat case can have at most two zero points and one minimum between them [18].