Example sentences of "unc [pron] can " in BNC.

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1 Consequently , we see that unc which can ( except in the case where b\a , that is where rl = 0 ) be described as " the last non-zero remainder in the above process " .
2 Since we already know that unc is equivalent to ½'we; can say that we reduce to its lowest term ½ Do you remember from page 21 the quick way of doing this type of division question ? unc You can use the same method to reduce fractions to their lowest terms , by splitting each part into its factors .
3 The product of the numerical matrices in ( 8 ) , in that order , is ( see ( 3 ) ) unc If we premultiply unc we ca finally write unc These enable us to choose , if they are required , unc but , following ( 5 ) , we could equally well use any two different linear combinations o x1 ,
4 and unc we can replace the first original equation by
5 If unc we can , by the above , find m , r such that unc Then unc where
6 Similarly we deduce physical reality for the states unc Thus a proton state , on this view , is labelled by three choices of + or — " to indicate the values of the corresponding spin components in the directions unc There are eight possibilities in all : unc We can not determine experimentally all these quantities for a given proton but we can fix two of them .
7 If we revert to the original problem , the solution of Ax = x , we now see that there are just n eigenvalues s and that correspondingly there are just n vectors xs ; i.e. we have n equations unc We can combine them all into the single equation unc or more briefly AX = X where X is ow the square matrix made up of the n column vectors xs , and unc is the diagonal matrix of the eigenvalues ; and our problem is now to find the matrices X and unc for the given A.
8 In succession , we find unc Now P ( unc is the polynomial in unc unc which on differentiation gives unc We can evidently construct corresponding polynomials in the matrices B and
9 Now consider the general polynomial unc We can identify P(C) with D ; this requires unc where 1 , … , n are the diagonal elements of C , and d1 , … , dn those of D. The square matrix in ( 30 ) is known as an alternant : its reciprocal is discussed in Ref ( P1 ) .
10 However , in place of the simple unc we can drive from ( 15 ) the relation unc In practice , therefore , if convergence seems very slow , we evaluate three successive columns fully , omitting the reduction of a homologous element to unity , and solve the quadratic unc for at least two homologous elements .
11 Knowing unc we can either(i)Solve unc with one element of unc arbitrarily assigned .
12 When we have obtained unc we can perform a check , which is in any event needed when the vectors are normalised .
13 We can now deflate A. Since unc a deflated matrix A1 is unc We can therefore use A1 to obtain the remaining eigenvalues and vectors of A in the usual way .
14 Having obtained unc we can adopt it as a new unc and repeat the cycle of approximation , which is known to be quadratically convergent : i.e. if unc is the true eigenvalue , then for small differences
15 Since unc must be independent of unc we can simplify eqn ( 3.56 ) by taking
16 Study this example : unc We can save rewriting by looking out for common factors above and below the division line .
17 Therefore the area of the rectangle shown at the bottom of the last page is equal to base x height and the area of the triangle is unc We can now see that to work out the area of any triangle we simply need to remember are unc
18 unc we can use the equations you have just learnt in the following way .
19 Here is a testable prediction , all the more interesting for the fact that for appropriately chosen orientations of the axes unc one can show that quantum mechanics leads to a violation of the Bell inequality .
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