「Matrices」の共起表現一覧(1語右で並び替え)

Matrices

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  • r available data types are sparse, compressed matrices, a long accumulator for an exact scalar produ
  • or undirected graphs G1 and G2 with adjacency matrices A1 and A2 are given.
  • All matrices and vectors are available in all classical nu
  • representation theory, relations with random matrices and integrable systems, and the difference eq
  • applied a different equalization for the new matrices and this resulted in far better pressings and
  • in particular nonnegative rank of nonnegative matrices and communication complexity.
  • ncDesigner uses NumPy arrays and SciPy sparse matrices, and thus depends on the NumPy and SciPy modu
  • ducts have dictated the need for new types of matrices and testing systems.
  • erge such as complex numbers, p-adic numbers, matrices, and various Banach algebras.
  • ndry was the first manufacturer of typefaces, matrices and other type-related equipment in Cincinnat
  • free probability, in particular, using random matrices and a new concept of entropy to solve several
  • MTL supports several implementations of dense matrices and sparse matrices.
  • most famous for introducing alternating sign matrices and his work on generalized Heron's formula.
  • nalysis of variance certain positive-definite matrices appear.
  • lacing zeros above and below each pivot; such matrices are said to be in reduced row echelon form.
  • y, because the elements of its transformation matrices are derived from the calculation of sines and
  • e pixel is classified correctly and the error matrices are more accurate.
  • Thermoplastic matrices are commonplace in mass production industries
  • The PAM matrices are normalized so that, for instance, the PAM
  • Custom Switch Matrices are used extensively throughout test systems
  • Similarity matrices are used in sequence alignment.
  • allest upper bounds for any large rectangular matrices are for those of Gaussian matrices.
  • Nucleotide similarity matrices are used to align nucleic acid sequences.
  • The element matrices are read from files or created as needed and
  • It assumes matrices are laid out in a two-dimensional block cycli
  • Noting that signature matrices are both symmetric and involutary, they are t
  • e (G) and Thymine (T)), nucleotide similarity matrices are much simpler than protein similarity matr
  • The matrices are based on the minimum percentage identity
  • Any network can be described by set of matrices based on the network topology.
  • ng language supporting among other datatypes, matrices, boleans, intervals, sets and fractions.
  • parse matrix given as the assembly of element matrices by assembling the matrix and eliminating equa
  • ually inverse (finite or infinite) triangular matrices can be formed by arranging the Stirling numbe
  • A more sophisticated description using matrices can be achieved by separating the observed ob
  • Circulant matrices can be interpreted geometrically, which expla
  • Volatile substances in liquid or solid matrices can be made available by the purge and trap t
  • alculating the eigenvalues of nine classes of matrices: complex general, complex Hermitian, real gen
  • used on the use of three dimensional collagen matrices containing fibroblasts to learn about the mec
  • Matrices containing zeros below each pivot are said to
  • R's data structures include scalars, vectors, matrices, data frames (similar to tables in a relation
  • Other analytes are often in complex matrices, e.g., heavy metals in pond water.
  • Conference matrices first arose in connection with a problem in t
  • wn that, for nontrivial irreducible incidence matrices, flow equivalence is completely determined by
  • ound and was detected only in low-temperature matrices for a long time.
  • Matrices for lower similarity sequences require longer
  • and various new dye-doped solid-state organic matrices have been discovered.
  • such networks were represented by conference matrices, hence the name.
  • ordan elimination is an algorithm for getting matrices in reduced row echelon form using elementary
  • ditional support for biclustering rectangular matrices in the form of other datatypes, including cMo
  • uantity of interest in the study of incidence matrices in graph theory, and of certain one-dimension
  • a frames, contingency tables, random numbers, matrices in a user friendly virtual worksheet.
  • aximal in Co0, N is the group of all integral matrices in Co0.
  • The number of distinct m-by-n binary matrices is equal to 2mn, and is thus finite.
  • which satisfies this property for all n by n matrices is called a Grothendieck constant and denoted
  • but for infinite matrices, is named after him.
  • erative search with position-specific scoring matrices is also available.
  • al, complex and interval numbers, vectors and matrices, it can produce 2D/3D plots, and uses Maxima
  • es in the world and complete sets of dies and matrices, it also has an extensive library, a richly d
  • However the individual cobble matrices match sediments found in the upper Pysht and
  • ed isospectral or cospectral if the adjacency matrices of the graphs have equal multisets of eigenva
  • compute many eigenvalues and eigenvectors for matrices of rather large size [13,14,16].
  • rix and Mr and My are the variance-covariance matrices of the residuals and observations, respective
  • e electrical response of thermoset resins and matrices of composite materials at specified depth ove
  • m is one of the matrices of G
  • (1958) "Cultural Matrices of Chinookan Non-Casual Language."
  • ndles real, complex, and interval values, and matrices of these types.
  • (found by considering the determinants of the matrices on the left and right sides of the matrix for
  • group theory, for example to finite groups of matrices over the complex numbers in small dimension.
  • trivial example is the set Matn(B) of square matrices over a boolean algebra B, where the matrices
  • ing point arithmetic, finite fields, vectors, matrices, polynomials, lattice basis reduction and bas
  • terized a biophysical effect in extracellular matrices populated with cells or nonliving particles,
  • rs and spectral perturbation theory, Toeplitz matrices, random matrices, and damped wave operators.
  • The four matrices reflect the probabilities of the central, nin
  • Geometrically, signature matrices represent a reflection in each of the axes co
  • Shpolskii matrices result from fortuitous compatibility between
  • y, some linear algebra of two dimensions with matrices, some combinatorics, and a little statistics.
  • has been successfully used with thermoplastic matrices such as polybutylene terephthalate (PBT) eith
  • tion/ionization methods using other inorganic matrices, such as nanomaterials, are often regarded as
  • y differential equations using characteristic matrices Szalai R, Stepan G and Hogan SJ
  • Philips in the 1970s and are two-dimensional matrices that have the sequences of the proteins being
  • ce, this method works in the space of density matrices that can be spanned by an over-complete basis
  • 1; MIM 131390), are thin pericellular protein matrices that control a large number of cellular activ
  • lection, the evolution of variance-covariance matrices, the detection of evolutionary constraints, a
  • ty that, when it is the product of two square matrices, the matrices can be said to be the inverse o
  • Thus, if f and t are real matrices, their normalized cross-correlation equals th
  • mith-Winograd algorithm for multiplying these matrices, this gives an asymptotic worst-case running
  • Baxter used calculations with corner transfer matrices to guess the correct solution of the hard hex
  • Later, she started to use matrices to analyze vibrations of airplanes during Wor
  • okande severely restricts the neutrino mixing matrices to the form
  • mpletely positive map from the set of density matrices to itself.
  • the list, the expansion of the size limit of matrices to 50x50, and the (unintentional) addition of
  • Apart from the representation of triangular matrices, triangular arrays are used in several algori
  • Method of Molding Structural Matrices, U.S. Patent #3,229,004, 1966.
  • ng capabilities, creation and manipulation of matrices up to 6x6 in size, and programming in Texas I
  • AM) or Percent Accepted Mutation, is a set of matrices used to score sequence alignments.
  • , and the production of natural and synthetic matrices used as delivery systems for cells or cell pr
  • analyse data (e.g., chemical and biological) matrices using regression and/or pattern recognition t
  • standard eigenvalue problems with real sparse matrices using iterative solvers.
  • the results of Kummer diagonalising symmetric matrices, using determinants and Sturm functions.
  • tangent linear, adjoint and K (full Jacobian matrices) versions of the model; the latter three modu
  • okande severely restricts the neutrino mixing matrices was first presented by D. V. Ahluwalia in a N
  • Then, the individual normal equation matrices were combined and the resultant matrix solved
  • The PAM matrices were introduced by Margaret Dayhoff in 1978 b
  • The matrices were created by merging (clustering) all sequ
  • s that if M, H and P are all n by n Hermitian matrices, where M has eigenvalues
  • he restricted isometry property characterizes matrices which are nearly orthonormal, at least when o
  • formulation produced very large, very sparse matrices which required special techniques to solve ef
  • r,Formulas for Stress, Strain, and Structural Matrices, Wiley, 2nd edition (November 11, 2004), ISBN
  • There are no known large matrices with bounded restricted isometry constants, b
  • "The biplot graphic display of matrices with application to principal component analy
  • Saccharomyces yeasts can form symbiotic matrices with bacteria, and are used to produce kombuc
  • omputation of eigenvalues and eigenvectors of matrices, written in FORTRAN.