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Function whose absolute value has a finite integral
In mathematics, an absolutely integrable function is a function whose absolute value is integrable, meaning that the integral of the absolute value over
Absolutely integrable function
Absolutely_integrable_function
Form of continuity for functions
continuous ⊆ absolutely continuous ⊆ bounded variation ⊆ differentiable almost everywhere. A continuous function fails to be absolutely continuous if
Absolute_continuity
Function which is integrable on its domain
locally integrable functions can grow arbitrarily fast at the domain boundary, but are still manageable in a way similar to ordinary integrable functions. Definition
Locally_integrable_function
Mode of convergence of an infinite series
continuous, every continuous function is absolutely integrable. In fact, since g ∘ f {\displaystyle g\circ f} is Riemann integrable on [ a , b ] {\displaystyle
Absolute_convergence
Generalized function whose value is zero everywhere except at zero
almost everywhere, then f {\displaystyle f} is integrable if and only if g {\displaystyle g} is integrable and the integrals of f {\displaystyle f} and
Dirac_delta_function
Distance from a point to the boundary of a set
Ω (i.e. the tubular neighbourhood of radius μ), and g is an absolutely integrable function on Γ, then ∫ T ( ∂ Ω , μ ) g ( x ) d x = ∫ ∂ Ω ∫ − μ μ g ( u
Signed_distance_function
Method of mathematical integration
d\mu .} The function is Lebesgue integrable if and only if its absolute value is Lebesgue integrable (see Absolutely integrable function). Consider the
Lebesgue_integral
Fourier transform of the probability density function
theorem. A real-valued, even, continuous, absolutely integrable function φ, with φ(0) = 1, is a characteristic function if and only if ( − 1 ) n ( ∫ R φ ( p
Characteristic function (probability theory)
Characteristic_function_(probability_theory)
Function spaces generalizing finite-dimensional p norm spaces
deviations – Statistical optimality criterion Locally integrable function – Function which is integrable on its domain ( L loc 1 ) {\displaystyle
Lp_space
Mathematical transform that expresses a function of time as a function of frequency
transform of an integrable function is continuous and the restriction of this function to any set is defined. But for a square-integrable function the Fourier
Fourier_transform
Mathematical theorem about functions
integrable. The most common statement of the Fourier inversion theorem is to state the inverse transform as an integral. For any integrable function g
Fourier_inversion_theorem
Basic integral in elementary calculus
measure zero. If a real-valued function on [a, b] is Riemann integrable, it is Lebesgue integrable. That is, Riemann-integrability is a stronger (meaning more
Riemann_integral
Mathematical theorem, used in calculus
functions are differentiable almost everywhere, the proof of the general formula does not follow, unless f − 1 {\displaystyle f^{-1}} is absolutely continuous
Integral_of_inverse_functions
Function with a multiplicative scaling behaviour
) . {\displaystyle f(mx)=|m|^{k}f(x).} A function is homogeneous over M {\displaystyle M} (resp. absolutely homogeneous over M {\displaystyle M} ) if
Homogeneous_function
Relationship between derivatives and integrals
and moreover F′ is integrable, with F(b) − F(a) equal to the integral of F′ on [a, b]. Conversely, if f is any integrable function, then F as given in
Fundamental theorem of calculus
Fundamental_theorem_of_calculus
Order-preserving mathematical function
b\right]} , then f {\displaystyle f} is Riemann integrable. An important application of monotonic functions is in probability theory. If X {\displaystyle
Monotonic_function
Extension of the factorial function
dt} converges absolutely, and is known as the Euler integral of the second kind. (Euler's integral of the first kind is the beta function.) The value Γ
Gamma_function
Integral expressing the amount of overlap of one function as it is shifted over another
space of integrable functions. This product satisfies the following algebraic properties, which formally mean that the space of integrable functions with
Convolution
Space of bounded sequences
absolutely summable sequences, and L 1 = L 1 ( X , Σ , μ ) {\displaystyle L^{1}=L^{1}(X,\Sigma ,\mu )} of absolutely integrable measurable functions (if
L-infinity
Definition of mathematical integration
all absolutely continuous functions are obtained in this manner.) The Lebesgue integral could be defined as follows: g is Lebesgue-integrable on I iff
Khinchin_integral
Mathematical method in calculus
Integration by parts works if u {\displaystyle u} is absolutely continuous and the function designated v ′ {\displaystyle v'} is Lebesgue integrable (but
Integration_by_parts
Expressing a measure as an integral of another
absolutely continuous with respect to μ , {\displaystyle \mu ,} then there is a μ {\displaystyle \mu } -integrable real- or complex-valued function g
Radon–Nikodym_theorem
Description of continuous random distribution
probability density function (PDF), density function, or simply density of an absolutely continuous random variable, is a function whose value at any given
Probability_density_function
Integral of sin(x)/x from 0 to infinity
real line, so the sinc function is not Lebesgue integrable over the positive real line. The sinc function is, however, integrable in the sense of the improper
Dirichlet_integral
Analytic function in mathematics
converges absolutely to an analytic function for s such that σ > 1 and diverges for all other values of s. Riemann showed that the function defined by
Riemann_zeta_function
Mathematical concept
uniformly integrable. A class of random variables bounded in L p {\displaystyle L^{p}} ( p > 1 {\displaystyle p>1} ) is uniformly integrable. A family
Uniform_integrability
Mathematical analysis of discontinuous points
the same weight on the obstruction that a bounded function f {\displaystyle f} be Riemann integrable on [ a , b ] . {\displaystyle [a,b].} Since countable
Classification of discontinuities
Classification_of_discontinuities
Mathematical problem in classical harmonic analysis
Lp spaces, summability methods and the Cesàro mean. Consider f an integrable function on the interval [0, 2π]. For such an f the Fourier coefficients f
Convergence_of_Fourier_series
Integral transform useful in probability theory, physics, and engineering
existence of the integral is that f must be locally integrable on [0, ∞). For locally integrable functions that decay at infinity or are of exponential type
Laplace_transform
Generalization of the Riemann integral
cumulative distribution function g is continuous, it does not work if g fails to be absolutely continuous (again, the Cantor function may serve as an example
Riemann–Stieltjes_integral
Construct related to weighted sums and averages
dx} Note that one may need to require f {\displaystyle f} to be absolutely integrable with respect to the weight w ( x ) d x {\displaystyle w(x)\,dx}
Weight_function
Continuous function that is not absolutely continuous
In mathematics, the Cantor function is an example of a function that is continuous, but not absolutely continuous. It is a notorious counterexample in
Cantor_function
Probability that random variable X is less than or equal to x
furthermore F X {\displaystyle F_{X}} is absolutely continuous, then there exists a Lebesgue-integrable function f X ( x ) {\displaystyle f_{X}(x)} such
Cumulative distribution function
Cumulative_distribution_function
Integral of the Gaussian function, equal to sqrt(π)
also known as the Euler–Poisson integral, is the integral of the Gaussian function f ( x ) = e − x 2 {\displaystyle f(x)=e^{-x^{2}}} over the entire real
Gaussian_integral
Type of vector space in math
functions are Riemann integrable. The Lebesgue spaces appear in many natural settings. The spaces L2(R) and L2([0,1]) of square-integrable functions with
Hilbert_space
Theorem in mathematics
monotonically decreasing function and φ : [ a , b ] → R {\displaystyle \varphi :[a,b]\to \mathbb {R} } is an integrable function, then there exists a number
Mean_value_theorem
Objects that generalize functions
possible to differentiate functions whose derivatives do not exist in the classical sense. In particular, any locally integrable function has a distributional
Distribution (mathematical analysis)
Distribution_(mathematical_analysis)
Mathematical function for the probability a given outcome occurs in an experiment
not only continuous but also absolutely continuous. Such distributions can be described by their probability density function. Informally, the probability
Probability_distribution
Theorem relating stationary processes' autocorrelations and power spectra
stochastic random functions are usually not absolutely integrable. Nor is r x x {\displaystyle r_{xx}} assumed to be absolutely integrable, so it need not
Wiener–Khinchin_theorem
Generalization of definite integrals to functions of multiple variables
measure m(Ck) of each subrectangle grows smaller. The function f is said to be Riemann integrable if the limit S = lim δ → 0 ∑ k = 1 m f ( P k ) m (
Multiple_integral
Mathematical theorem
A set of functions F ⊂ L 1 ( X , A , μ ) {\displaystyle {\mathcal {F}}\subset L^{1}(X,{\mathcal {A}},\mu )} is called uniformly integrable if lim M →
Vitali_convergence_theorem
Result in measure theory
convergence of sequences of integrable functions. It states that, if f n {\displaystyle f_{n}} is a sequence of integrable functions on a measure space ( X
Scheffé's_lemma
Conditions for switching order of integration in calculus
Use the condition that the functions are integrable to write them as the difference of two positive integrable functions and apply Tonelli's theorem
Fubini's_theorem
Technique in integral evaluation
w on X such that for every Lebesgue integrable function f : Y → R, the function (f ∘ φ) ⋅ w is Lebesgue integrable on X, and ∫ Y f ( y ) d ρ ( y ) = ∫
Integration_by_substitution
Functions of an angle
mathematics, the trigonometric functions (also called circular functions, angle functions or goniometric functions) are real functions which relate an angle of
Trigonometric_functions
Integral inequality
let 0 < λ < 1 and let f, g ∈ L1(Rn; [0, +∞)) be non-negative absolutely integrable functions. Let s ( x ) = e s s s u p y ∈ R n f ( x − y 1 − λ ) 1 −
Prékopa–Leindler_inequality
Formal power series
targeted at working with holonomic generating functions specifically. When the series converges absolutely, G ( a n ; e − i ω ) = ∑ n = 0 ∞ a n e − i ω
Generating_function
Equation in Fourier analysis
) {\displaystyle L^{1}([0,P])} function which is periodic on R {\displaystyle \mathbb {R} } , and therefore integrable on any interval of length P . {\displaystyle
Poisson_summation_formula
Differentiation under the integral sign formula
fx(x,t) is Lebesgue integrable, but not that it is Riemann integrable. In the former (stronger) proof, if f(x,t) is Riemann integrable, then so is fx(x,t)
Leibniz_integral_rule
Concept in mathematical analysis
improper integration is not necessary, and this is seen as a strength of the theory: it encompasses all Lebesgue integrable and improper Riemann integrable functions
Improper_integral
Generalization of the Riemann integral
Henstock–Kurzweil integrable, f is Lebesgue integrable, f is Lebesgue measurable. In general, every Henstock–Kurzweil integrable function is measurable,
Henstock–Kurzweil_integral
Decomposition of periodic functions
square integrable, then the Fourier series of s {\displaystyle s} converges absolutely and uniformly to s ( x ) {\displaystyle s(x)} . If a function is square-integrable
Fourier_series
Mode of convergence of a function sequence
of continuous functions is automatically continuous; the uniform limit of Riemann integrable functions is automatically Riemann integrable. With additional
Uniform_convergence
Infinite sum
continuous functions converges uniformly, then the limit function is also continuous. Similarly, if the f n {\displaystyle f_{n}} are integrable on a closed
Series_(mathematics)
{\displaystyle f} is weakly integrable on X {\displaystyle X} if and only if f {\displaystyle f} is Lebesgue integrable. The map f : X → V {\displaystyle
Pettis_integral
Average value of a random variable
sequence { X n } {\displaystyle \{X_{n}\}} is uniformly integrable. The probability density function f X {\displaystyle f_{X}} of a scalar random variable
Expected_value
System with an infinite-dimensional state-space
L2(0, ∞;U), the space of (equivalence classes of) U-valued square integrable functions on the interval (0, ∞), but other choices such as L1(0, ∞;U) are
Distributed_parameter_system
Special functions of several complex variables
is an absolutely convergent series. At fixed τ, this is a Fourier series for a 1-periodic entire function of z. Accordingly, the theta function is 1-periodic
Theta_function
Mathematical approximation of a function
of a function is an infinite sum of terms that are expressed in terms of the function's derivatives at a single point. For most common functions, the
Taylor_series
Analytic function in mathematics
condition that S(λk, θ, ω) is not a Fourier series representing an integrable function when this sum of squares of the ak is a divergent series. Greater
Lacunary_function
Special function in mathematics
absolutely convergent for the given values of s and a and can be extended to a meromorphic function defined for all s ≠ 1. The Riemann zeta function is
Hurwitz_zeta_function
Mathematical concept
{y}{x^{2}+y^{2}}}.} Given a function f ∈ L p ( R ) {\displaystyle f\in L^{p}(\mathbb {R} )} , the Lp space of integrable functions on the real line, u can
Poisson_kernel
Statement on solutions to ordinary differential equations
{\displaystyle t} for each fixed y {\displaystyle y} , there is a Lebesgue-integrable function m : [ t 0 − a , t 0 + a ] → [ 0 , ∞ ) {\displaystyle m:[t_{0}-a,t_{0}+a]\to
Carathéodory's existence theorem
Carathéodory's_existence_theorem
Concept in mathematics
A measurable function f : X → B {\displaystyle f:X\to B} is Bochner integrable if there exists a sequence of integrable simple functions s n {\displaystyle
Bochner_integral
convolution of any integrable function of period 2 π {\displaystyle 2\pi } with the Dirichlet kernel coincides with the function's n {\displaystyle n}
List of trigonometric identities
List_of_trigonometric_identities
Function related to statistics and probability theory
likelihoods need not integrate or sum to one over the parameter space. Let X {\textstyle X} be a random variable following an absolutely continuous probability
Likelihood_function
Real function with finite total variation
which the weight function is the identity function: therefore an integrable function f {\displaystyle f} is said to be a weighted BV function (of weight φ
Bounded_variation
Theorem in mathematical measure theory
corresponding to the pure point part; X ( 3 ) {\displaystyle X^{(3)}} is a square integrable pure jump martingale that almost surely has a countable number of jumps
Lebesgue's decomposition theorem
Lebesgue's_decomposition_theorem
(abstract algebra) Borel algebra Borel measure Indicator function Lebesgue measure Lebesgue integration Lebesgue's density theorem Counting measure Complete
List of integration and measure theory topics
List_of_integration_and_measure_theory_topics
Probability distribution
random variables are not absolutely continuous and thus do not have probability density functions. The cumulative distribution function of such a random variable
Normal_distribution
Form of alternative medicine
correspond to known facts of how the human body operates. Similarly, there is absolutely no support in psychological literature for the idea of traumatic experiences
Rolfing
Theorem in Optimal Transport
f} is ν {\displaystyle \nu } -integrable and f ∘ σ {\displaystyle f\circ \sigma } is μ {\displaystyle \mu } -integrable. Theorem. Consider a map ξ : Ω
Polar_factorization_theorem
Vector space of functions in mathematics
assume u {\displaystyle u} to be only locally integrable. If there exists a locally integrable function v {\displaystyle v} , such that ∫ Ω u D α φ d
Sobolev_space
Mathematical theorem
{\displaystyle \varphi } can range through the space of real-valued square-integrable functions L2[a, b]; however, in many cases the associated reproducing kernel
Mercer's_theorem
Theorem in mathematics and economics
{\displaystyle f(x,\cdot )} is absolutely continuous for all x ∈ X {\displaystyle x\in X} . Suppose also that there exists an integrable function b : [ 0 , 1 ] {\displaystyle
Envelope_theorem
Relation between frequency- and time-domain behavior at large time
{\displaystyle f'} have a Laplace transform f ′ {\displaystyle f'} is absolutely integrable - that is, ∫ 0 ∞ | f ′ ( τ ) | d τ {\displaystyle \int _{0}^{\infty
Final_value_theorem
Theorem
the condition of boundedness can be relaxed if the function is assumed to be absolutely integrable (i.e., L 1 {\displaystyle L^{1}} ) over a period, provided
Dirichlet–Jordan_test
First known wavelet basis
Alfréd Haar. Haar used these functions to give an example of an orthonormal system for the space of square-integrable functions on the unit interval [0, 1]
Haar_wavelet
Fractal curve resembling a blancmange pudding
triangle functions (shown in red) are added to the curve at each stage. The infinite sum defining T w ( x ) {\displaystyle T_{w}(x)} converges absolutely for
Blancmange_curve
Relative importance of certain frequencies in a composite signal
energy is finite (i.e. x ( t ) {\displaystyle x(t)} is a square-integrable function) allows applying Parseval's theorem (or Plancherel's theorem). That
Spectral_density
Theorem in integral calculus
denotes the Cauchy principal value and F {\displaystyle F} is a function which is integrable on the real line at least in the sense of the Cauchy principal
Glasser's_master_theorem
Uniform restraint of the change in functions
continuous. Any absolutely continuous function (over a compact interval) is uniformly continuous. On the other hand, the Cantor function is uniformly continuous
Uniform_continuity
Average uncertainty in variable's states
distribution p is absolutely continuous with respect to a measure m, i.e. is of the form p(dx) = f(x)m(dx) for some non-negative m-integrable function f with m-integral
Entropy_(information_theory)
Let f ∈ L 1 ( R ) {\displaystyle f\in L^{1}(\mathbb {R} )} be an integrable function. The span of translations f a ( x ) = f ( x + a ) {\displaystyle
Wiener's_Tauberian_theorem
Whose values lie in an infinite-dimensional vector space
classical results hold in the Banach space setting, for example, an absolutely continuous function with values in a suitable Banach space need not have a derivative
Infinite-dimensional vector function
Infinite-dimensional_vector_function
Functions in harmonic analysis mathematics
{\displaystyle |x-y|\to 0} . Since such integrals may not in general be absolutely integrable, a rigorous definition must define them as the limit of the integral
Singular_integral
Variant Fourier transforms
factors (see Fourier transform § Unitarity and definition for square integrable functions for discussion), other authors also define the cosine transform as
Sine_and_cosine_transforms
Mathematical operation
will be normally smaller. If f {\displaystyle f} is a locally integrable function (or more generally a Borel measure locally of bounded variation)
Two-sided_Laplace_transform
Variable representing a random phenomenon
In the special case that it is absolutely continuous, its distribution can be described by a probability density function, which assigns probabilities to
Random_variable
Function for integral Fourier-like transform
This is the space of Lebesgue measurable functions that are both absolutely integrable and square integrable in the sense that ∫ − ∞ ∞ | ψ ( t ) | d t
Wavelet
Measure with complex values
_{X}f\,d\mu =\int _{X}fe^{i\theta }\,d|\mu |} for any absolutely integrable measurable function f, i.e., f satisfying ∫ X | f | d | μ | < ∞ . {\displaystyle
Complex_measure
Expected value of a random variable given that certain conditions are known to occur
section are assumed to be in L 2 {\displaystyle L^{2}} , that is square integrable. In its full generality, conditional expectation is developed without
Conditional_expectation
Real-valued function
{1}{|Q|}}\int _{Q}u(y)\,\mathrm {d} y.} Definition 2. A BMO function is a locally integrable function u {\displaystyle u} whose mean oscillation supremum, taken
Bounded_mean_oscillation
Infinite sum of monomials
infinitely differentiable functions. In fact, Borel's theorem implies that every power series is the Taylor series of some smooth function. In many situations
Power_series
In functional analysis, a Hilbert space
{H}}=L_{2}^{1}(0)[0,\infty )} of absolutely continuous functions with f ( 0 ) = 0 {\displaystyle f(0)=0} and square integrable (i.e. L 2 {\displaystyle L_{2}}
Reproducing kernel Hilbert space
Reproducing_kernel_Hilbert_space
definition. (b) There is a constant c such that for any locally integrable function f on Rn, and all balls B: ( f B ) p ≤ c ω ( B ) ∫ B f ( x ) p ω
Muckenhoupt_weights
Test for series convergence
convergent. The test is mainly pertinent and useful in the context of non-absolutely convergent series ∑ a n {\textstyle \sum a_{n}} .[citation needed] It
Abel's_test
Length in a vector space
{\displaystyle (X,\Sigma ,\mu ),} which consists of all square-integrable functions, this inner product is ⟨ f , g ⟩ L 2 = ∫ X f ( x ) ¯ g ( x ) d x
Norm_(mathematics)
Mathematical criterion about whether a series converges
converges absolutely. If ℓ ≤ 1 ≤ L {\displaystyle \ell \leq 1\leq L} then the test is inconclusive, and the series may converge absolutely or conditionally
Convergence_tests
Generalized notion of measure in mathematics
+∞ as a value, one needs to replace the assumption about f being absolutely integrable with the more relaxed condition ∫ X f − ( x ) d ν ( x ) < ∞ , {\displaystyle
Signed_measure
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
Boy/Male
Indian, Sanskrit
Seeker of the Absolute
Girl/Female
Indian, Sanskrit
Alone; One; Absolute
Boy/Male
Tamil
Chidaakaash | சிதாகாஷ
Absolute Brahma
Chidaakaash | சிதாகாஷ
Boy/Male
Tamil
Chidakash | சிதாகாஷ
Absolute Brahma
Chidakash | சிதாகாஷ
Boy/Male
Indian, Sanskrit
Alone; One; Absolute
Boy/Male
Indian, Sanskrit
Alone; One; Absolute
Boy/Male
Indian, Sanskrit
Absolute; Aloneness
Boy/Male
Tamil
Parabrahmana | பரபà¯à®°à®¹à¯à®®à®¨à®¾
The supreme absolute truth
Parabrahmana | பரபà¯à®°à®¹à¯à®®à®¨à®¾
Boy/Male
Indian
Absolute.
Boy/Male
Hindu, Indian, Kannada, Marathi, Telugu, Traditional
Absolute Brahma
Boy/Male
Arabic, Muslim
Absolute; Unlimited
Boy/Male
Gujarati, Hindu, Indian, Kannada, Malayalam, Marathi, Oriya, Telugu
Absolute
Boy/Male
Tamil
Keval Kumar | கேவலகà¯à®®à®¾à®°
Absolute
Keval Kumar | கேவலகà¯à®®à®¾à®°
Girl/Female
Australian, British, English, Indonesian
Absolutely and Ridiculously Perfect
Boy/Male
Hindu
The supreme absolute truth
Boy/Male
Gujarati, Hindu, Indian, Malayalam, Marathi, Sanskrit
Absolute Brahma
Boy/Male
Hindu
Absolute
Boy/Male
Tamil
Kevalin | கேவாலீந
Seeker of the absolute
Kevalin | கேவாலீந
Girl/Female
Gujarati, Hindu, Indian, Kannada, Sanskrit
Absolute; Aloneness
Boy/Male
Hindu, Indian, Kannada, Malayalam, Marathi, Oriya, Telugu
Absolute
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
Girl/Female
Tamil
The best, Knowledge of truth
Boy/Male
English American Anglo Saxon
Swift.
Boy/Male
Hindu
Boy/Male
African, Arabic, Hindu, Indian, Marathi, Muslim, Swahili
Dear; Rare
Boy/Male
Muslim
Watchful
Girl/Female
Gujarati, Indian
A Flower
Female
English
Variant spelling of English Charmaine, SHARMAINE means "sing."Â
Girl/Female
Gujarati, Hindu, Indian, Kannada, Malayalam, Marathi, Telugu
The Bhagvat Gita
Girl/Female
Australian, British, English, French
Battle
Female
African
God loves me.
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
ABSOLUTELY INTEGRABLE-FUNCTION
p. pr. & vb. n.
of Integrate
adv.
Relatively; not absolutely.
a.
Not immediately dependent on the other parts of the sentence in government; as, the case absolute. See Ablative absolute, under Ablative.
adv.
In an absolute, independent, or unconditional manner; wholly; positively.
a.
Capable of being integrated.
a.
Loosed from any limitation or condition; uncontrolled; unrestricted; unconditional; as, absolute authority, monarchy, sovereignty, an absolute promise or command; absolute power; an absolute monarch.
a.
Incapable of being held; untenable; not defensible; as, an intenable opinion; an intenable fortress.
adv.
At once; absolutely.
a.
Viewed apart from modifying influences or without comparison with other objects; actual; real; -- opposed to relative and comparative; as, absolute motion; absolute time or space.
n.
The quality of being integrable.
a.
Pertaining to, or proceeding by, integration; as, the integral calculus.
adv.
In an integral manner; wholly; completely; also, by integration.
adv.
Purely; unmixedly; absolutely.
imp. & p. p.
of Integrate
v. t.
To subject to the operation of integration; to find the integral of.
a.
Inferable.
a.
Complete in itself; perfect; consummate; faultless; as, absolute perfection; absolute beauty.
a.
Obtainable by induction; derivable; inferable.
v. i.
To make decrees; -- used absolutely.
a.
Pure; unmixed; as, absolute alcohol.