Examples of using Exponential function in English and their translations into Serbian
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An example is the power series for the exponential function.
Thus, any exponential function is a constant multiple of its own derivative.
Main article: Characterizations of the exponential function.
In an exponential function, the independent variable is in the exponent.
Defined for all a> 0, and all real numbers x,is called the exponential function with base a.
The exponential function(in blue), and the sum of the first n+ 1 terms of its Maclaurin power series(in red).
For each positive base, b, other than 1, there is one logarithm function and one exponential function;
The exponential function(in blue), and the sum of the first n +1 terms of its Taylor polynomial at 0(in red).
When considered as a function defined on the complex plane, the exponential function retains the important properties.
The exponential function(in blue), and the sum of the first n+1 terms of its Taylor series at 0(in red).
By way of the binomial theorem andthe power series definition, the exponential function can also be defined as the following limit:[5].
The exponential function ex can be defined in a variety of equivalent ways, as an infinite series.
The second law of error was proposed in 1778 by Laplace andstated that the frequency of the error is an exponential function of the square of the error.
This formula connects the exponential function with the trigonometric functions and to the hyperbolic functions. .
This is a misnomer, however, because tetration cannot be expressed with iterated power functions(see above),since it is an iterated exponential function.
He also defined the exponential function for complex numbers, and discovered its relation to the trigonometric functions. .
He published it in 1774,modeling the frequency of an error as an exponential function of its magnitude once its sign was disregarded.
The definition of the exponential function exp given above can be used verbatim for every Banach algebra, and in particular for square matrices.
The first law of Laplace, from 1774,states that the frequency of an error can be expressed as an exponential function of the absolute magnitude of the error, which leads to the Laplace distribution.
And an exponential function, even though it might start a little bit slower, it's eventually going to pass up the linear function. .
The first law was published in 1774 andstated that the frequency of an error could be expressed as an exponential function of the numerical magnitude of the error, disregarding sign.
The exponential function is nearly flat(climbing slowly) for negative values of x, climbs quickly for positive values of x, and equals 1 when x is equal to 0.
If a variable's growth or decay rate is proportional to its size-as is the case in unlimited population growth(see Malthusian catastrophe), continuously compounded interest, orradioactive decay-then the variable can be written as a constant times an exponential function of time.
Most elementary functions, including the exponential function, the trigonometric functions, and all polynomial functions, are holomorphic.
As a particular case, at the identity, the derivative of the determinant actually amounts to the trace: tr= det′I. From this(or from the connection between the trace and the eigenvalues), one can derive a connection between the trace function, the exponential map between a Lie algebra and its Lie group(or concretely,the matrix exponential function), and the determinant.
Sometimes, especially in the sciences,the term exponential function is reserved for functions of the form kax, where a, called the base, is any positive real number.
Since changing the base of the exponential function merely results in the appearance of an additional constant factor, it is computationally convenient to reduce the study of exponential functions in mathematical analysis to the study of this particular function, conventionally called the"natural exponential function",[1][2] or simply,"the exponential function" and denoted by.
Bc's standard math library(defined with the-l option) contains functions for calculating sine, cosine, arctangent,natural logarithm, the exponential function and the two parameter Bessel function J. Most standard mathematical functions(including the other inverse trigonometric functions) can be constructed using these.
For b= 1 the real exponential function is a constant and the derivative is zero because log e b= 0,{\ displaystyle\ log_{ e} b=0,} for positive a and b> 1 the real exponential functions are monotonically increasing( as depicted for b= e and b= 2), because the derivative is greater than zero for all arguments, and for b< 1 they are monotonically decreasing( as depicted for b= 1/2), because the derivative is less than zero for all arguments.
And this is going to be the case even if the linear function has a pretty high slope or a pretty high starting point,if it's something like that, and even if the exponential function is starting pretty slow, it will eventually, and even if it's compounding or growing relatively slow but exponentially, you know if it's going 2% or 3%, it still will eventually pass up the linear function which is pretty cool.