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31 - 80 of 2,148 search results for tj KaKaotalk:PC53 where 0 match all words and 2,148 match some words.
  1. Results that match 1 of 2 words

  2. Alternative Solvers for the Derivative Riemann Problem forHyperbolic…

    https://api.newton.ac.uk/website/v0/events/preprints/NI06053
    23. Tm. Tj. τ=tn. τ=tn1. F(Q(xh,τk)).n. xhxh. τk. Figure 11: Numerical flux computed at the Gaussian point x = xh and t = tk.
  3. generalized-krs-final.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI06059
    Fix 0 j k 1. Since τjr({z}Tj) is linearly general in Pd, we can find a hyperplane H in Pd such that. ... jr. r ) with sj(z) 6= 0 but sj(y) = 0 for all y Tj.
  4. Model theory makes formulas large Anuj Dawar∗ Martin Grohe∗∗ ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI07003
    Fh,R contains a disjoint copy Tj of the tree T (j), for each j {0,. , ... A |= rooth(t) t is the root of one of the trees Tj.
  5. MODIFIED KREIN FORMULA ANDANALYTIC PERTURBATION PROCEDURE FOR…

    https://api.newton.ac.uk/website/v0/events/preprints/NI07016
    DNF = K++ K+I. K KK JT 〉. I. λI L Q(λ)〈TJ. ... and. DNF := JT 〉I. λI L Q(λ)〈TJ =. λFs. φFs 〉〈φFsλ λFs.
  6. UNIFORM EXISTENCE OF THE INTEGRATED DENSITY OF STATESFOR RANDOM ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI07020
    Let. S := {d. j=1. tj ej : 0 < tj < 1}.
  7. ON BERNOULLI DECOMPOSITIONSFOR RANDOM VARIABLES, CONCENTRATION…

    https://api.newton.ac.uk/website/v0/events/preprints/NI07043
    3.22). By virtue of (3.17), the set At is an antichain in its dependence on {ηj}jJt withJt := {j : δj (tj ) x+ x}. ... Using (3.20) the expected value of |Jt| =. Nj=1 1{j : δj (tj )x+x}.
  8. arX iv:0 712. 4278 v1 [ hep- th] 27 ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI07085
    ti tj tk = fa′b′c′Ca′aCb. ′bCc′c tia t. jb t. kc , (3.17). ... ti t4i 1 , tj 1 t4j] = ()ijijt(ij)mod 4 t4i t4j.
  9. ITP–UU–08/14 , SPIN–08–13DAMTP–2008–24 HWM–08–1 ,…

    https://api.newton.ac.uk/website/v0/events/preprints/NI08016
    ITP–UU–08/14 , SPIN–08–13DAMTP–2008–24. HWM–08–1 , EMPG–08–01NI08015–SIS , ESI–2018. Cohomological gauge theory, quiver matrix models. and Donaldson–Thomas theory. Michele Cirafici(a), Annamaria Sinkovics(b) and Richard J.
  10. BART:Bayesian Additive Regression Trees Hugh A. Chipman, Edward I. ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI09002
    where for each binary regression tree Tj and its associated terminal node pa-. ... n followed by m successive drawsof (Tj, Mj)|T(j), M(j), z1,. ,
  11. D:/GRUPPE/Veroeffentlichungen/Dumbser/PAPER_USFORCE2/Paper_USFORCE3.dv…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09017
    Φk, wh]tn. Tj= [Φk, uh]. tn. Tj, Tj Si. (11). As in the work of Barth and Frederickson [5] the number of elements in thestencil must be chosen larger than ... Obviously, we have. Vj = |Ti|. With Sj = |Tj|. we denote the length/area of edge/face number j
  12. EIGENVECTOR LOCALIZATION FOR RANDOM BAND MATRICES WITH POWER LAW ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI09019
    Tj Pj1Y1+ Pj1T. †j , T. †j1Pj1YPj1Tj1 AW. By Prop. 5 Pj Y1Pj AW. ... Lemma 3.2 (Lemma W for XW ;nW ). Let Vj, Tj, j = 1,. ,
  13. SPADES AND MIXTURE MODELS FLORENTINA BUNEA ALEXANDRE B. TSYBAKOV ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI09022
    δ/2 M. j=1. P{ω̄j > ωj}. Define. tj = 2Ef4j (X1)Ef2j (X1). ... log(2M/δ)n. and note that. 2n. ni=1. f2j (Xi) tj T 2j.
  14. hard_hard_test_d_zoom_convergence.eps

    https://api.newton.ac.uk/website/v0/events/preprints/NI09023
    To compute the reconstruction polynomial wi(x,t. n)valid for element Ti we require integral conservation for all elements Tj insidethe stencil Ssi , i.e. ... 1. x. Tj. wsi (x,tn)dx =. 1. x. Tj. Ψl(x)dx ŵ(i,s)l (tn) = Qnj , Tj Ssi.
  15. On a nonlinear integrable differenceequation on the square…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09025
    Tj 1)µui,j µ1ui1,j. 1ui,jui1,j= 0, where Tj is the shift operator for the j index.
  16. The Generalized Symmetry Method forDiscrete Equations D.…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09026
    The Generalized Symmetry Method forDiscrete Equations. D. LeviDipartimento di Ingegneria Elettronica,. Università degli Studi Roma Tre and Sezione INFN, Roma Tre,Via della Vasca Navale 84, 00146 Roma, Italy. E-mail: levi@roma3.infn.it. R.I.
  17. P. Grinevich, S.Novikov Singular Finite-Gap Operators and Indefinite…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09030
    tj kj (w). (O. (1. k(w). ))dk(w), w P. (9). Here we assume that only finite number of variables tn are different from 0. ... exp[i. j. tj. zw. j. ](11). Here j are meromorphic differentials with an unique pole at the point P ,. j = d(kj) regular tems.
  18. Lagrangian multiforms and multidimensional consistency Sarah Lobb and …

    https://api.newton.ac.uk/website/v0/events/preprints/NI09032
    Utjtj. (n2j. (ti tj)2U2tiU2tjU2titjU2tj 1tj ti. UtitjUtj. ). n2i2(ti tj)3. UtjUti. ... 2(ti tj)(tj tk)U2tj+. n2k2(tj tk)(tk ti)U2tk. (4.10a). or(ti tj)UtkUtitj (tj tk)UtiUtjtk (tk ti)UtjUtkti = 0.
  19. Darboux-review-v7.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI09047
    4.19) jθi Qij(j)θj = θTj(ij)(ψTi(j)Qψj ψ. Tj(i)Qψi. ),. which vanishes due to (4.17).
  20. P.Grinevich 1, S.Novikov2 Singular Finite-Gap Operators and…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09048
    tj kj (w). (O. (1. k(w). ))dk(w), w P. (9). Here we assume that only finite number of variables tn are different from 0. ... exp[i. j. tj. zw. j. ](11). Here j are meromorphic differentials with an unique pole at the point P ,. j = d(kj) regular tems.
  21. A constructive approach to the soliton solutionsof integrable…

    https://api.newton.ac.uk/website/v0/events/preprints/NI09072
    T11 T12 ηj,. η123j =Tj [T13 (T. 11 T. 12 η3)T3][T. ... N}, (4.7). in terms of whichη1.ij =. Tj Ai 1T1j Ai 1.
  22. . OKAMOTO’S SPACE FOR THE FIRST PAINLEVÉ EQUATION IN ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI10031
    OKAMOTO’S SPACE FOR THE FIRST PAINLEVÉ EQUATION. IN BOUTROUX COORDINATES. J.J. DUISTERMAAT AND N. JOSHI. Abstract. We study the completeness and connectedness of asymptotic behaviours of solutions of the first. Painlevé equation d2 y/ dx2 = 6
  23. MAXIMAL INEQUALITY OF STOCHASTIC CONVOLUTION DRIVEN BYCOMPENSATED…

    https://api.newton.ac.uk/website/v0/events/preprints/NI10035
    f (t, ω, z) =n. j=1. mk=1. ξkj1(ω)1(tj1,tj ](t)1Akj1 (z),(2.1). where ξkj1 is an E-valued p-integrable Ftj1 -measurable random variable, ... by, for 0 < t T ,. It(f ) :=n. j=1. mk=1. ξkj1(ω)Ñ ((tj1 t, tj t] Akj1).
  24. clt33.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI10046
    SPDE LIMITS OF MANY-SERVER QUEUES. HAYA KASPI AND KAVITA RAMANAN. Abstract. A many-server queueing system is considered in which customers with independent. and identically distributed service times enter service in the order of arrival. The state
  25. INVISCID LARGE DEVIATION PRINCIPLE AND THE 2D NAVIERSTOKES EQUATIONS…

    https://api.newton.ac.uk/website/v0/events/preprints/NI10054
    INVISCID LARGE DEVIATION PRINCIPLE AND THE 2D NAVIERSTOKES EQUATIONS WITH A FREE BOUNDARY CONDITION. HAKIMA BESSAIH AND ANNIE MILLET. Abstract. Using a weak convergence approach, we prove a LPD for the solution of2D stochastic Navier Stokes
  26. Non-time-homogeneous Generalized Mehler Semigroups and Applications

    https://api.newton.ac.uk/website/v0/events/preprints/NI10058
    H. H. 1A(ε′)(x y) µt,tj (dx)(µtj,s U(t, tj)1)(dy). H. H. ... η. 2> µtj,s(A(ε. ′/2)) = µtj,t (µt,s U(tj, t)1)(A(ε′/2)). =. H.
  27. papererbanhaskovecDec4.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI10068
    tj x̺ = 2[γ0 b(1 u2)]j 4b̺u , (4.28). u(t, x) :=. . . . . . w(|x z|)j(t, z) dz. w(|x z|)̺(t, ... tj x̺ = 2. (. γ0 b. (. 1 j2. ̺2. )).
  28. PKMN-paper1-preprint.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI11010
    From the system (26) one infer that. (Tj 1)[. (ui)2 pi]. =
  29. Hypercontractive Inequality for Pseudo-Boolean Functions of Bounded…

    https://api.newton.ac.uk/website/v0/events/preprints/NI11017
    t2r} (j1i=1 Mi)such that w2µj = max{w. 2ti : ti Tj}, and let Mj be a minimally even subset of. ... Tj containing µj. Let s be the largest j for which µj is defined above.
  30. total.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI11056
    tJ, then tr(CGCT ) = tr(G) (Bailey, 2009). In addition. MV -optimal designs are those designs which minimize the maximum of the diagonal entries.
  31. GSinCE-revision-withnames.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI11060
    the jth input; that is,. Tj = Sj. h 6=j. Sjh.
  32. driver_SA.dvi

    https://api.newton.ac.uk/website/v0/events/preprints/NI11063
    involving the input xj,. Tj = Sj. k 6=j. Skj S1,2,.,d. ... effect, i.e., those with Tj >. 10, the plug-in Bayesian estimator has slightly smaller absolute.
  33. Best Intention Designs in Dose–finding Studies Valerii V.…

    https://api.newton.ac.uk/website/v0/events/preprints/NI11065
    Best Intention Designs in Dose–finding Studies. Valerii V. FedorovQuintiles, Inc. Durham, NC, USAV.V.Fedorov2011gmail.com. Nancy FlournoyDepartment of StatisticsUniversity of MissouriColumbia, MO, USA. flournoyn@missouri.edu. Yuehui
  34. Model selection and parameter estimation innon-linear nested models:…

    https://api.newton.ac.uk/website/v0/events/preprints/NI11066
    k,. 1. βTj = (βTj1,τ. Tj ), where τj is the vector of the last dj dj1 components of. ... T jn,mm. >cj. n. m, ev. )= 1,. since T jn,m > Tj.
  35. A Graphical Method for Comparing Response-Adaptive Randomization…

    https://api.newton.ac.uk/website/v0/events/preprints/NI12009
    patient. Let NA(n) =n. j=1 Tj be the (random) number of assignments to treatment. ... Consider the binary response model, where Xj|(Tj = 1) and Xj|(Tj = 0) are.
  36. ON MINIMAL WTT-DEGREES AND COMPUTABLY ENUMERABLE TURING DEGREES ROD…

    https://api.newton.ac.uk/website/v0/events/preprints/NI12044
    ON MINIMAL WTT-DEGREES AND COMPUTABLY. ENUMERABLE TURING DEGREES. ROD DOWNEY, KENG MENG NG, AND REED SOLOMON. 1. Introduction. Computability theorists have studied many different reducibilities be-tween sets of natural numbers including one
  37. A Size Index for Multitape Turing Machines

    https://api.newton.ac.uk/website/v0/events/preprints/NI12061
    the values of z and kj = κ(tj) as follows,where lj = λ(tj):. • ... z = R,kj 6= lj: w(tj, (y,z)) = {kj1, (ij,1, ij,2,.
  38. ON THE STOCHASTIC STRICHARTZ ESTIMATES AND THESTOCHASTIC NONLINEAR…

    https://api.newton.ac.uk/website/v0/events/preprints/NI12062
    ON THE STOCHASTIC STRICHARTZ ESTIMATES AND THESTOCHASTIC NONLINEAR SCHRÖDINGER EQUATION ON A. COMPACT RIEMANNIAN MANIFOLD. Z. BRZENIAK AND A. MILLET. Abstract. We prove the existence and the uniqueness of a solution to the stochasticNSLEs on a
  39. KOLMOGOROV COMPLEXITY AND COMPUTABLY ENUMERABLE SETS GEORGE…

    https://api.newton.ac.uk/website/v0/events/preprints/NI12071
    to repay at some later stage at most qj[x]. Moreover at stage x a string of weightqj[x] is used to describe A tj [x] via Nj. ... 5) we get that tj[y] tj[x] for all y [x,r].
  40. Safe Recursive Set Functions Arnold Beckmann∗† Department of Computer …

    https://api.newton.ac.uk/website/v0/events/preprints/NI12082
    and tj for each j, respectively. ... By Lemma 3.2 we can choose a large nand combine the uniform definitions of the ri(x/)’s in the SRnri (x/)’s, of the tj(x/y)’s in.
  41. GEOMETRIC HIGHER GROUPOIDS AND CATEGORIES KAI BEHREND AND EZRA ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI12092
    Given sequences 0 < s1 < sm < 1 and 0 < t1 < < tn < 1 such that si 6= tj, representing a pair ofpoints in the interiors of m and n respectively, the union of
  42. Finite-type invariants of magnetic lines Petr M. Akhmet’ev Contents…

    https://api.newton.ac.uk/website/v0/events/preprints/NI12095
    Finite-type invariants of magnetic lines. Petr M. Akhmet’ev. Contents. 1 MHD 71.1 The mean magnetic field equation. 7. 1.1.1 Topological considerations concerning the transportequation of the magnetic helicity. 8. 2 Ergodic integrals 112.1
  43. ON THE COUPLING BETWEEN AN IDEAL FLUID ANDIMMERSED PARTICLES ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI13024
    ON THE COUPLING BETWEEN AN IDEAL FLUID ANDIMMERSED PARTICLES. HENRY O. JACOBS. Imperial College London, Mathematics Department, 180 Queen’s Gate Rd.,London SW72AZ, UK. TUDOR S. RATIU. Section de Mathématiques, Station 8, and Bernoulli Center,
  44. Equivalent theories of liquid crystal dynamics François Gay-Balmaz1, …

    https://api.newton.ac.uk/website/v0/events/preprints/NI13034
    17. . t. δ2δν. = ν δ2δν[δ2δj,j. ] divγ. δ2δγ. tj [j, ν̂] = 0. ... jxiγi jγi γi. )tj [j, ν̂] = 0,. tγi γi ν xiν = 0, γ0 = 0 ,(4.6).
  45. ON CONVERGENT SCHEMES FOR DIFFUSE INTERFACE MODELS FOR TWO-PHASE ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI13045
    h+ C1. ). exp. (. C. (. tj. tjτ. τ. ‖vτh‖2H1 ds. (. ... tj τ). ϕ0. H1. )2q̄)). for all 1 j N.
  46. JCOMP-S-13-01233

    https://api.newton.ac.uk/website/v0/events/preprints/NI13049
    way. We have that. ψi(xj) tj = δij, (9). where xj is any point on the j-th edge (note that λi(xj) = 0 if i 6= j). ... φi(x) =ti12Bi. λi(x) ti12Bi1. λi1(x) (11). where tj is the unit vector tangent to the jth edge pointing in the counter-clockwise
  47. Entropy Production and Coarse Graining of the Climate Fields ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI13065
    Given an intensive thermodynamic field X(xk, tj), for323. n = 1,. ,
  48. INFINITELY MANY SOLUTIONS FOR A CLASS OF SUBLINEAR SCHRÖDINGER ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI14008
    q 1. ki=1. Di. a(x) |ztiψi|q1 dx. By (26), there exists j [1,k] such that |tj| = 1 and |ti| 1 for i 6= j. ... a(x) |ztjψj(x)|q1 dx i 6=j. Di. a(x) |ztiψi|q1 dx. Since ψj(x) = 1 for x Ej and |tj| = 1, we have.
  49. An abstract framework for parabolic PDEs on evolving spaces ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI14033
    tj as in the defini-. tion then u̇(t) =mj=1 α. ′j(t)χ. ... tj. We skip the proof which is straightforward: just. use the definition of the weak material derivative and perform some manipula-tions.
  50. On the equivalence between Lurie’s model andthe dendroidal model ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI14039
    If G =. jJ Tj is another forest,an arrow. (α,f) : F Gis a pair consisting of a function α : I J and for each i I a map fi : Si ... In other words, if e Si and e′ Si′ are two edges, then fi(e) and fi′(e′) are incomparablein the partial order on
  51. Change points in high dimensionalsettings∗ John A D Aston† ...

    https://api.newton.ac.uk/website/v0/events/preprints/NI14074
    Tj=1. 〈Xd(j), pd〉.  , (2.1)ZT,i(x) =. 1. T 1/2. bTxct=1. ... Lemma 2.2. Consider. τ̂21,d,T (pd) =1. T. Tj=1. (pTd et(d). 1.

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