Examples of the the word, dv , in a Sentence Context
The word ( dv ), is the 11827 most frequently used in English word vocabulary
Mastering contextual understanding of words and phrases is a vital skill for effective communication and English learning. Enhance your proficiency by practicing with our handpicked collection of 50 English phrases.
At the end of the list you can practice your english pronunciation
- Frac +\franc \right) Du + \left (\franc \franc +\franc \franc +\franc \right),DV,0. Since u, v are both independent, the coefficients of Du, dv must be zero. So
- Above them. The rule is sometimes written as" DETAIL" where D stands for, dv , To demonstrate the LATE rule, consider the integral: \int x\cos x \, dx. \!
- Order statistics UI < Up can be shown to be: f_ (u, v)\, du\, dv = n! \, du\, dv , which is (up to terms of higher order than O (Du\, dv ) ) the probability
- Arctan (x) \dot 1 \, dx. Now let:: u \arc tan (x) \Right arrow Du \franc:, dv , dx \Right arrow v x Then: \begin \int \arc tan (x) \, dx & = x \arc tan (x) -
- Root of the average squared speed:: v_\math rm \left (\int_0^ v^2 \, f (v) \, dv , \right)^ \sort \sort \sort v_p The typical speeds are related as follows::
- Is performed twice. First let: u \cos (x) \Right arrow Du -\sin (x)\, dx and:, dv , e^x \, dx \Right arrow v \int ex \, dx = ex Then:: \int ex \cos (x) \, dx =
- In order to calculate:: \int x\cos (x) \, dx\! Let:: u x \Right arrow Du DX:, dv , \cos (x)\, dx \Right arrow v \int\cos (x)\, dx = \sin x Then:: \begin \int
- Consider the integral: \int x\cos x \, dx. \! Following the LATE rule, u x and, dv , cos x DX, hence Du DX and v sin x, which makes the integral become: x\sin x -
- Y → x. Then for any real-valued function f defined on φ (U): \int_ f (v)\, dv , \; =\; \int_U f (\var phi (u) ) \; \left|\DET \var phi' ( u)\right | \, du in
- Frac Dy +\franc Du +\franc DV 0: DX = \franc Du + \franc DV: Dy = \franc Du + \franc, dv , Substituting DX, dy into DF and DG, we have:: DF \left (\franc \franc +\franc
- Integration by parts again, with:: u \sin (x) \Right arrow Du \cos (x)\, dx:, dv , e^x \, dx \Right arrow v \int ex \, dx = ex Then:: \int ex \sin (x) \, dx =
- First derivatives of F, G,x, and y:: DF \franc DX + \franc Dy +\franc Du +\franc, dv ,0: DG \franc DX + \franc Dy +\franc Du +\franc DV 0: DX = \franc Du + \franc DV: Dy =
- By the formula: A (S’D) = \mint_D\left | \DEC_u\times\DEC_v\right | \, du \, dv , Thus, the area of SD is obtained by integrating the length of the normal vector
- Ways. For example, to integrate: \int x^3e^\, dx, one would set: u x^2,\quad, dv , xe^\, dx, so that: Du 2x\, dx, \quad v \frac12 ex. Then: \int x^3e^\, dx \int
- Gamma v\, dv \\ &= m \left (\left. \gamma v^2 \right|^_ - c^2\int_^ \franc\, dv , \right) \\ &= \left. M\left (\franc + c^2 \sort \right) \right|^_ \\ &= \left
- Then u and DV is easy to integrate. If instead cos x was chosen as u and x as, dv , we would have the integral: \frac2\cos x + \int \frac2\sin x\, dx, which
- Combined, a shift in k to k'=k+VP symmetrizes everything::: \int_0^1 \int DK, dv , = \int_0^1 \int DK' DV This form shows that the moment that p2 is more
- Dx\! Which equals: x\sin x + \cos x+C. \! In general, one tries to choose u and, dv , such that Du is simpler than u and DV is easy to integrate. If instead cos x
- Average of the speed distribution: \angle v \range \int_0^ v \, f (v) \, dv , \sort \sort \franc v_p The root-mean-square speed, vrms is the square root of
- Note that the integral above (UV) differs from the previous equation. The, dv , factor has been written as v purely for convenience. The above-mentioned form
- Frac +\franc \right) Du + \left (\franc \franc +\franc \franc +\franc \right),DV,0: DG \left (\franc \franc +\franc \franc +\franc \right) Du + \left (\franc \franc
- x)\, dx\! Or, if u f (x),v g (x) and the differentials Du f ′ (x) DX and, dv , g′ (x) DX, then it is in the form most often seen:: \int u\, dv =UV-\int v\
- This allows the u integral to be evaluated explicitly::: \int_ u ex = \int, dv , leaving only the \, v-integral. This method, invented by Schwinger but usually
- Int x^3e^\, dx \int \left (x^2\right) \left (Xes \right) \, dx \int u \, dv , uv - \int v\, du \frac12 x^2 ex - \int Xes\, dx. Finally, this results in: \int
- Thus the minus sign),and used the chain rule in the form DS = \franc, dv , Now we integrate from y_0 to y 0 to get the total time required for the
- Int\cos (x)\, dx = \sin x Then:: \begin \int x\cos (x) \, dx & = \int u \, dv , \\ & = UV - \int v \, du \\ & = x\sin (x) - \int \sin (x) \, dx \\ & =
- DVMP Pro: full decoding quality. Plays AVI (inc DVCPRO25 and DREAM) and., dv , files. Also displays the DV meta-information (e.g. time code, date/time
- Frac \right) DV 0. Since u, v are both independent, the coefficients of Du, dv , must be zero. So we can write out equations for the coefficients:: \franc \franc
- Forms of the rule are also valid:: \int u v\, dw = u v w - \int u w\, dv ,- \int v w\, du. \! Strategy Integration by parts is a heuristic rather than a
- Dx + \franc Dy +\franc Du +\franc DV 0: DG \franc DX + \franc Dy +\franc Du +\franc, dv ,0: DX = \franc Du + \franc DV: Dy = \franc Du + \franc DV. Substituting DX, dy into
- U, v)\in D\subset\mathbb^2:: A \mint_D \left|\franc\times\franc\right|\, du\, dv , Name "/JJ"> Locarno"/> Minimization Given a wire contour, the surface of least
- If u f (x),v g (x),and the differentials Du f' ( x) DX and, dv , g ' (x) DX, then integration by parts states that: \int u\, dv =UV-\int v\, du
- x)\, dx = \int u\, dv , where: \begin u &= f' ( x),\\ Du &= f (x)\, dx, \\, dv , &= P_1 (x)\, dx, \\ v &= P_2 (x)/2. \end Integrating by parts again, we get,
- X, etc.: E: Exponential functions: ex,19x,etc. The function which is to be, dv , is whichever comes last in the list: functions lower on the list have easier
- As:: \int \LN (x) \dot 1 \, dx. \! Let:: u \LN (x) \Right arrow Du \franc:, dv , dx \Right arrow v x\, Then:: \begin \int \LN (x) \, dx & = x \LN (x) - \int
- Cdot \franc DT \\ &= \left. \gamma m v^2 \right|^_ - m\int_^ \gamma v\, dv , \\ &= m \left (\left. \gamma v^2 \right|^_ - c^2\int_^ \franc\, dv \right) \\
- V=\franc: \franc\dot v = -\franc\, : v \dot DV = -\franc\, dr\, : \int_^ v\, dv , = -\int_^\franc\, dr\, : \franc-\franc = \franc-\franc. \, Since we want escape
- A → a.: \math bf \LIM_ \franc \franc \, where,DV, is an infinitesimally small change in velocity and DT is an infinitesimally
- K to k'=k+VP symmetrizes everything::: \int_0^1 \int DK DV = \int_0^1 \int DK ', dv , This form shows that the moment that p2 is more negative than 4 times the mass
- In general, one tries to choose u and DV such that Du is simpler than u and, dv , is easy to integrate. If instead cos x was chosen as u and x as DV, we would
- x)\, dx = \int u\, dv , where: \begin u &= f (x),\\ Du &= f' ( x)\, dx, \\, dv , & P_0 (x)\, dx \quad (\text_0 (x) 1),\\ v &= P_1 (x). \end Integrating
- Dv 0: DG \franc DX + \franc Dy +\franc Du +\franc DV 0: DX = \franc Du + \franc, dv , : Dy = \franc Du + \franc DV. Substituting DX, dy into DF and DG, we have:: DF
- Du\, dv = n! \, du\, dv which is (up to terms of higher order than O (Du\, dv , ) ) the probability that i − 1,1,j − 1 − i,1 and n − j sample elements fall
- Let k be an integer, and consider the integral: \int_km f (x)\, dx = \int u\, dv , where: \begin u &= f (x),\\ Du &= f' ( x)\, dx, \\ DV & P_0 (x)\, dx
- D (UV) DT'\; \; \; Du DT+DT'\, and " wedging" gives:: u Du \wedge, dv , = DT \wedge DT'\, This allows the u integral to be evaluated explicitly:::
- Written to a file as the data is received over FireWire, file extensions are., dv , and. Dif) or the DV data can be packed into AVI container files. The DV
- Frac \dot \franc -\franc. \, Because v=\franc: \franc\dot v = -\franc\, : v \dot, dv , = -\franc\, dr\, : \int_^ v\, dv = -\int_^\franc\, dr\, : \franc-\franc = \franc-\franc
- Combining denominator. Abstractly, it is the elementary identity::: = \int_0^1,DV, But this form does not provide the physical motivation for introducing \, v ---
- X, y,z):: \phi’M = - \int \; where r is a distance between a volume element, dv , and a point M. The integration runs over the whole space. Another" Poisson's
- Approximate the sum. Next, consider: \int_km f' ( x)P_1 (x)\, dx = \int u\, dv , where: \begin u &= f' ( x),\\ Du &= f (x)\, dx, \\ DV &= P_1 (x)\, dx, \\
Now it is your turn - use the english voice checker
Take control of your English pronunciation with our Voice Checker tool. It's your turn to sound confident and fluent!
Your voice recordings list
To download your recording the the download link above the audio player
Search for other english pronunciations examples
Our data base is updated daily, click here to check out all sentences
Free Text to Speech Tool: Convert Text to Audio Online
Now that you have trained speaking all the phrases you can use our tool to improve your english speaking skills. You have the option of using four different synthesized english voices: Microsoft Mark - English (United States), Microsoft Zira - English (United States), Microsoft David - English (United States), Google US English, Google UK English Female, Google UK English Male
Note that it may take some seconds for your to be able to hear the voice