Examples of using Complex plane in English and their translations into Spanish
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And every member of that automorphism group maps the extended complex plane into itself- not one of the Τns can possibly map the plane into a single point.
Thus, this function is not meromorphic in the whole complex plane.
If n 1,{\displaystyle n=1,}every simply connected open set other than the whole complex plane is biholomorphic to the unit disc this is the Riemann mapping theorem.
By analytic continuation,this function can be extended to a meromorphic function on the whole complex plane.
The zeta function is defined for the whole complex plane except for the pole at z=1.
By analytic continuation,this function can be extended to a meromorphic function defined on the whole complex plane.
A holomorphic function whose domain is the whole complex plane is called an entire function.
The Dedekind zeta-function satisfies a functional equation andcan be extended by analytic continuation to the whole complex plane.
The extension of these functions to complex s in the whole complex plane was obtained by Bernhard Riemann in 1859.
All rational functions, for example f( z) z 3- 2 z+ 10 z 5+ 3 z- 1,{\displaystyle f(z)={\frac{ z^{ 3} -2z+10}{ z^{ 5} +3z-1}},}are meromorphic on the whole complex plane.
By analytic continuation, this function can be extended to a meromorphic function on the whole complex plane, and is then called a Dirichlet L-function and also denoted Ls, χ.
Interesting instances of this case arise when the sequence{Τn}constitutes a subgroup of finite order within the group of automorphisms over the extended complex plane.
Although the AT-802 could be classified as complex plane by the power of its engine and takeoff weight, really complex this aircraft is so specific to the use that has been created.
A bounded function that is holomorphic in the entire complex plane must be constant;
In particular, if the real part is given on any curve in the complex plane where the real part of some other entire function is zero, then any multiple of that function can be added to the function we are trying to determine.
It likes the gantry type digital control cutter to cut any complex plane figure.
In the mathematical field of complex analysis,a meromorphic function on an open subset D of the complex plane is a function that is holomorphic on all of D except for a discrete set of isolated points, which are poles of the function.
In many cases, even where the series does not converge everywhere,the holomorphic function it defines may be analytically continued to a meromorphic function on the entire complex plane.
Another way to resolve the indeterminacy is to view the logarithm as a function whose domain is not a region in the complex plane, but a Riemann surface that covers the punctured complex plane in an infinite-to-1 way.
In the complex plane(also known as the Argand plane), which is a special interpretation of a Cartesian plane, i is the point located one unit from the origin along the imaginary axis which is orthogonal to the real axis.
The function f( z) e 1 z{\displaystyle f(z)=e^{\frac{1}{z}}}is defined in the whole complex plane except for the origin, 0.
Suppose that ƒ is an analytic function in a region in the complex plane which contains the closed disk D of radius r about the origin, a1, a2,…, an are the zeros of ƒ in the interior of D repeated according to multiplicity, and ƒ(0)≠ 0.
Little Picard Theorem: If a function f: C→ C is entire and non-constant, then the set of values that f(z)assumes is either the whole complex plane or the plane minus a single point.
In fact, the exponential function maps S bijectively to the punctured complex plane C× C∖{ 0}{\displaystyle\mathbb{C}^{\times}=\mathbb{C}\setminus\{0\}}, and the inverse of this restriction is Log: C×→ S{\displaystyle\operatorname{Log}\colon\mathbb{C}^{\times}\to S.
Every entire function f(z) can be represented as a power series f( z)∑ n 0∞ a n z n{\displaystyle f(z)=\sum_{n=0}^{\infty}a_{ n} z^{ n}} that converges everywhere in the complex plane, hence uniformly on compact sets.
The complex logarithm function f( z) ln( z){\displaystyle f( z)=\ ln( z)} is not meromorphic on the whole complex plane, as it cannot be defined on the whole complex plane while only excluding a set of isolated points.
Such functions are sometimes called self-conjugate(the conjugate function, F∗( z){\displaystyle F^{*}(z)}, being given by F¯( z¯)).{\displaystyle{\bar{F}}{\bar{z If the real part of an entire function is known in a neighborhood of a point then both the real andimaginary parts are known for the whole complex plane, up to an imaginary constant.
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.
The final generalization was achieved by Bergweiler, Rippon and Stallard who showed that this relation persists for every unbounded analytic function f{\displaystyle f}defined in an arbitrary unbounded region D{\displaystyle D} in the complex plane, under the only assumption that| f( z)|{\displaystyle|f(z)|} is bounded for z∈∂ D{\displaystyle z\in\partial D.