Examples of the the word, dx , in a Sentence Context
The word ( dx ), is the 19807 most frequently used in English word vocabulary
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- Combinations). Examples of these are: \int ex\, dx , \squad \int \sin (x^2)\, dx , \squad\int \franc\, dx , \squad \int\franc\, dx , \squad \int X\, dx . See also
- Is the closure equation:: \int_0^\nifty x J_\alpha (UX) J_\alpha (ex),DX, = \franc \delta (u - v) for α > −1/2 and where δ is the Dirac delta function.
- Constant, is y′ 2x,the antiderivative of the latter is given by:: \int 2x\, dx , = x^2 + C. An undetermined constant like C in the antiderivative is known as a
- That takes a function as an input and gives a number, the area, as an output;, dx , is not a number, and is not being multiplied by f (x). The indefinite
- Be verified by direct computation:: \math rm (X^2) \pronto \int_^ \, dx \int_^, dx ,- \int_^ \, dx \int_^ DX -\pi = \nifty. \! The variance does not exist because
- But we could also take (1) to mean, for example, : \LIM_\int_a x f (x)\, dx , \! Which is not zero, as can be seen easily by computing the integral. Because
- Of f and is written using the integral symbol with no bounds:: \int f (x)\, dx , If F is an antiderivative of f, and the function f is defined on some interval
- Number of rectangles, so that their width Ex becomes the infinitesimally small, dx , In a formulation of the calculus based on limits, the notation: \int_ASB
- A circle can be computed using a definite integral:: A \; \; \int_or 2\sort\, dx , \; \; \pi r^2. Surface area Most basic formulae for surface area can be
- X^2)\, dx , \squad\int \franc\, dx , \squad \int\franc\, dx , \squad \int X\, dx , See also differential Galois theory for a more detailed discussion. Techniques
- Probability, the results must then be normalized:: :\int_p (x, t)\, dx , = 1 To summarize, the probability distribution of the outcome is the normalized
- Extension to the hyperreal has the property that for real x and infinitesimal, dx , is infinitesimal. In other words, an infinitesimal increment of the
- Then this formula can also be written as: \sum\limits_ f (k)=\int_ASB f (x)\, dx , + \sum\limits_km \franc \left (FM (b)-FM (a)\right)+R (f, m ). \ Here ƒ (0
- An antiderivative of f and consider the continuous function g (x) F (x) −, dx , on the closed interval a, b. Then g must have either a maximum or minimum c in
- Direct computation:: \math rm (X^2) \pronto \int_^ \, dx \int_^ DX - \int_^ \, dx , \int_^ DX -\pi = \nifty. \! The variance does not exist because of the
- S stands for" sum" ). The definite integral is written as:: \int_ASB f (x)\, dx , And is read" the integral from a to b of f-of-x with respect to x. " The
- Orthogonality relation is:: \int_0^\nifty x^2 j_\alpha (UX) j_\alpha (ex),DX, = \franc \delta (u - v) for α > −1. Another important property of Bessel's
- 3-form in R3. Define the current two form: j =F_1\ Dy\wedge dz + F_2\ dz\wedge, dx , + F_3\ DX\wedge Dy. It measures the amount of" stuff" flowing through a
- CA is equal to Na/ V therefore: P_=C_RT Consequently, for gas A, : N_=-D_ \franc, dx , where DAB is the diffusivity of A in B. Similarly, : N_ -D_ \fraud D_ \fraud
- x) such that: F (b)-F (a) \operator name (a< X\LEQ b) \int_ASB f (x)\, dx , for all real numbers a and b. (The first of the two equalities displayed above
- May be written as a definite integral:: S’m (n) = \int_0^n (\math bf+x)km\, dx , Many other Bernoulli identities can be written compactly with this symbol, e.
- Unimolecular Counterdiffusion If no bulk flow occurs in an element of length, dx , the rates of diffusion of two gases A and B must be equal and opposite, that
- Limits rather than infinitesimals, it is common to manipulate symbols like, dx , and Dy as if they were real numbers; although it is possible to avoid such
- F (x). The indefinite integral, or antiderivative, is written:: \int f (x)\, dx , Functions differing by only a constant have the same derivative, and therefore
- Int_0^\nifty \, \franc \exp \left- \xi \left (1+\franc\right) \sort \right \, dx , The modified Bessel function of the second kind has also been called by the
- Functions and their combinations). Examples of these are: \int ex\, dx , \squad \int \sin (x^2)\, dx , \squad\int \franc\, dx , \squad \int\franc\, dx
- Function whose derivative is f on the interval (a, b ), then: \int_^ f (x)\, dx , = F (b) - F (a). Furthermore, for every x in the interval (a, b ),
- Of these are: \int ex\, dx , \squad \int \sin (x^2)\, dx , \squad\int \franc\, dx , \squad \int\franc\, dx , \squad \int X\, dx . See also differential Galois
- The integral from a to b of f-of-x with respect to x. " The Leibniz notation, dx , is intended to suggest dividing the area under the curve into an infinite
- Euler–MacLaurin formula can be written as: \sum\limits_f (k)=\int_ASB f (x)\, dx , \ + \sum\limits_km \franc\left (FM (b)-FM (a)\right)+R (f, m ). This
- Sqrt\, \int_0^\nifty \, \exp \left- \xi \left (1+\franc\right) \sort \right \, dx , : K_ (\xi) = \franc \, \int_0^\nifty \, \franc \exp \left- \xi \left (
- Derivative, as the output. For example:: \franc (x^2)=2x. In this usage,the,DX, in the denominator is read as" with respect to x ". Even when calculus is
- That is NA=-NB. The partial pressure of A change by DPA over the distance, dx , Similarly, the partial pressure of B changes DPB. As there is no difference in
- As can be verified by direct computation:: \math rm (X^2) \pronto \int_^ \, dx , \int_^ DX - \int_^ \, dx \int_^ DX -\pi = \nifty. \! The variance does not
- But which are, in some sense," infinitely small ". An infinitesimal number, dx , could be greater than 0,but less than any number in the sequence 1,1/2,1/3
- Mathrm (X^2) \pronto \int_^ \, dx \int_^ DX - \int_^ \, dx \int_^, dx ,-\pi = \nifty. \! The variance does not exist because of the divergent mean
- This follows immediately applying () to the polynomial Q (x): =P (m +, dx , ) instead of P (x),and observing that Q (x) has still degree less than or
- Small. In Leibniz's notation, such an infinitesimal change in x is denoted by, dx , and the derivative of y with respect to x is written: \franc \, \! Suggesting
- Has a density function f (x),then the mean is: \int_^\nifty x f (x)\, dx , \squad\squad (1)\! The question is now whether this is the same thing as:
- Phi_X (t; x_0,\gamma) \math rm (ex) \int_^\nifty f (x; x_, \gamma)ex\, dx , = ex. Which is just the Fourier transform of the probability density. The
- Follows immediately:: \int_0^1 x^2 j_\alpha (x u_) j_\alpha (x u_),DX, = \franc j_ (u_)^2 Another orthogonality relation is the closure equation::
- In particular, it follows that:: \int_0^1 x J_\alpha (x u_) J_\alpha (x u_),DX, = \franc J_ (u_)^2 = \franc J_' ( u_)^2,where α > −1,km, n is the Kronecker
- An antiderivative G. On the other hand, it can not be true that: \int_kg (x)\, dx , GF (1)-GF (-1) 2,since for any partition of \left\left (-1\right)
- A formulation of the calculus based on limits, the notation: \int_ASB \lots\, dx , is to be understood as an operator that takes a function as an input and gives
- Becomes: \Psi (r)\pronto \franc \int\! \! \! \int_\math rm E_ (x ', y ') ex \, dx ,' \, dy ', Now,since: \bold r' = x' \bold \hat + y' \bold \hat y and: \bold
- Dx, \squad \int \sin (x^2)\, dx , \squad\int \franc\, dx , \squad \int\franc\, dx , \squad \int X\, dx . See also differential Galois theory for a more detailed
- F is an antiderivative of the integrable function f, then:: \int_ASB f (x)\, dx , = F (b) - F (a). Because of this, each of the infinitely many
- This is the same thing as: \int_0^\nifty x f (x)\, dx +\int_^0 | | f (x)\, dx , \squad\squad (2) \! If at most one of the two terms in (2) is infinite
- Necessarily well-defined. We may take (1) to mean: \LIM_\int_a x f (x)\, dx , \! And this is its Cauchy principal value, which is zero, but we could also
- The infinitesimally small change in y caused by an infinitesimally small change, dx , applied to x. We can also think of d/DX as a differentiation operator, which
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