Examples of using Holomorphic function in English and their translations into Turkish
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Every holomorphic function is analytic.
The theorem follows from the fact that holomorphic functions are analytic.
All holomorphic functions are complex-analytic.
Finally, the convergent series defines a holomorphic function f(z) on the open annulus.
Holomorphic functions are the central objects of study in complex analysis.
One of the most important theorems of complex analysis is that holomorphic functions are analytic.
Holomorphic functions are also sometimes referred to as regular functions. .
In mathematics,Hardy's theorem is a result in complex analysis describing the behavior of holomorphic functions.
Entire function: A holomorphic function whose domain is the entire complex plane.
As often formulated, the d-bar operator∂¯{\displaystyle{\bar{\partial}}} annihilates holomorphic functions.
The concept of a holomorphic function can be extended to the infinite-dimensional spaces of functional analysis.
For every Riemann surface,a meromorphic function is the same as a holomorphic function that maps to the Riemann sphere and which is not constant∞.
A holomorphic function need not possess an antiderivative on its domain, unless one imposes additional assumptions.
In contrast, on a compact Riemann surface, every holomorphic function is constant, while there always exist non-constant meromorphic functions.
Holomorphic function: Complex valued function of a complex variable which is differentiable at every point in its domain.
This is also because animportant result in complex analysis is that every holomorphic function is complex analytic, a fact that does not follow obviously from the definitions.
Every holomorphic function can be separated into its real and imaginary parts, and each of these is a solution of Laplace's equation on R2.
If the domain is simply connected; this is Cauchy's integral theorem,stating that the line integral of a holomorphic function along a closed curve is zero.
Unlike functions of a real variable, holomorphic functions are sufficiently rigid that their isolated singularities can be completely classified.
In complex analysis, a branch of mathematics, the Schwarz integral formula, named after Hermann Schwarz,allows one to recover a holomorphic function, up to an imaginary constant, from the boundary values of its real part.
In other words, if we express a holomorphic function f(z) as u(x, y)+ i v(x, y) both u and v are harmonic functions, where v is the harmonic conjugate of u.
In complex analysis, the open mapping theorem states that if U is a domain of the complex plane C and f:U→ C is a non-constant holomorphic function, then f is an open map i.e. it sends open subsets of U to open subsets of C.
A holomorphic function f has derivatives of every order at each point a in its domain, and it coincides with its own Taylor series at a in a neighbourhood of a.
Conversely, if we start with an annulus of theform A≡{z: r<|z- c|< R} and a holomorphic function f(z) defined on A, then there always exists a unique Laurent series with center c which converges(at least) on A and represents the function fz.
If two holomorphic functions agree on a(possibly quite small) open neighborhood U of a, then they coincide on the open disk Bd(a), where d is the distance from a to the nearest singularity.
Because complex differentiation is linear and obeys the product, quotient, and chain rules; the sums,products and compositions of holomorphic functions are holomorphic, and the quotient of two holomorphic functions is holomorphic wherever the denominator is not zero.
If one identifies C with R2, then the holomorphic functions coincide with those functions of two real variables with continuous first derivatives which solve the Cauchy-Riemann equations, a set of two partial differential equations.
This conjecture asserts that there is a rule that assigns to each element g of the monster, a graded vector space V(g), and to each commuting pair of elements(g,h) a holomorphic function f(g, h, τ) on the upper half-plane, such that: Each V(g) is a graded projective representation of the centralizer of g in M. Each f(g, h, τ) is either a constant function, .
In complex analysis, it is natural to define differentiation via holomorphic functions, which have a number of useful properties, such as repeated differentiability, expressability as power series, and satisfying the Cauchy integral formula.
Sometimes, as in the case of the natural logarithm,it is impossible to analytically continue a holomorphic function to a non-simply connected domain in the complex plane but it is possible to extend it to a holomorphic function on a closely related surface known as a Riemann surface.