# Invariant sentence example

invariant
• This arose from the study by Felix Klein and Sophus Lie of a new theory of groups of substitutions; it was shown that there exists an invariant theory connected with every group of linear substitutions.
• F(a ' a ' a, ...a) =r A F(ao, a1, a2,ï¿½ï¿½ï¿½an), 0 1 2 n the function F(ao, al, a2,...an) is then said to be an invariant of the quantic gud linear transformation.
• This expression of R shows that, as will afterwards appear, the resultant is a simultaneous invariant of the two forms.
• Remark.-The invariant C is a numerical multiple of the resultant of the covariants i and j, and if C = o, p is the common factor of i and j.
• Again, for the cubic, we can find A3(z) - -a6z6 1 -az 3.1 -a 2 z 2.1 -a 3 z 3.1 -a4 where the ground forms are indicated by the denominator factors, viz.: these are the cubic itself of degree order I, 3; the Hessian of degree order 2, 2; the cubi-covariant G of degree order 3, 3, and the quartic invariant of degree order 4, o.
• 1 A2B' Where The Denominator Factors Indicate The Forms Themselves, Their Jacobian, The Invariant Of The Quadratic And Their Resultant; Connected, As Shown By The Numerator, By A Syzygy Of Degreesorder (2, 2; 2).
• Such a symbolic product, if its does not vanish identically, denotes an invariant or a covariant, according as factors az, bz, cz,...
• 2 cos w xy+y 2 = X 2 +2 cos w'XY+Y2, from which it appears that the Boolian invariants of axe+2bxy-y2 are nothing more than the full invariants of the simultaneous quadratics ax2+2bxy+y2, x 2 +2 cos coxy+y2, the word invariant including here covariant.
• The invariant theory then existing was classified by them as appertaining to " finite continuous groups."
• It may denote a simultaneous orthogonal invariant of forms of orders n i, n2, n3,...; degree 0 of the covariant in the coefficients.
• Then if j, J be the original and transformed forms of an invariant J= (a1)wj, w being the weight of the invariant.
• The fourth shows that every term of the invariant is of the same weight.
• Moreover, if we add the first to the fourth we obtain aj 2w ak = 7 1=6, j, =0j, where 0 is the degree of the invariant; this shows, as we have before observed, that for an invariant w= - n0.
• If 0 be the degree of an invariant j - aj aj a; oj =a ° a a o +al aa l +...
• The linear transformation replaces points on lines through the origin by corresponding points on projectively corresponding lines through the origin; it therefore replaces a pencil of lines by another pencil, which corresponds projectively, and harmonic and other properties of pencils which are unaltered by linear transformation we may expect to find indicated in the invariant system.
• If now the nti c denote a given pencil of lines, an invariant is the criterion of the pencil possessing some particular property which is independent alike of the axes and of the multiples, and a covariant expresses that the pencil of lines which it denotes is a fixed pencil whatever be the axes or the multiples.
• From these formulae we derive two important relations, dp4 = or the function F, on the right which multiplies r, is said to be a simultaneous invariant or covariant of the system of quantics.
• In either case (AB) =A 1 B 2 -A 2 B 1 = (A/2)(ab); and, from the definition, (ab) possesses the invariant property.
• Since (ab) = a l b 2 -a 2 b l, that this may be the case each form must be linear; and if the forms be different (ab) is an invariant (simultaneous) of the two forms, its real expression being aob l -a l b 0.
• (ab)i(ac)j(bc)k..., that the symbolic product (ab)i(ac)j(bc)k..., possesses the invariant property.
• =n3, 'If' the forms a:, b:, cy 7 ...be identical the symbols are alternative, and provided that the form does not vanish it denotes an invariant of the single form ay.
• The linear invariant a s is such that, when equated to zero, it determines the lines ax as harmonically conjugate to the lines xx; or, in other words, it is the condition that may denote lines at right angles.
• Siace E2 + if + ~1, or ef, is necessarily an absolute invariant for all transformations of the (rectangular) co-ordinate axes, we infer that XE + un + v~ is also an absolute invariant.
• A single linear form has, in fact, no invariant.
• = wj, aa 1 aa 2 a a 3 the complete system of equations satisfied by an invariant.
• 3 is absolutely unaltered by transformation, and is termed the absolute invariant.
• We can see that (abc)a x b x c x is not a covariant, because it vanishes identically, the interchange of a and b changing its sign instead of leaving it unchanged; but (abc) 2 is an invariant.
• The complete system consists of the form itself and this invariant.
• Operating with 5l-xidxlwe find S2C 0 =o; that is to say, C ° satisfies one of the two partial differential equations satisfied by an invariant.
• Unlike the other descriptors the chain code histogram is not a rotation invariant descriptor.
• This was the first known result on a topological invariant.
• Invariant Theory of Finite Groups This introductory lecture will be concerned with polynomial invariant Theory of Finite Groups This introductory lecture will be concerned with polynomial invariants of finite groups which come from a linear group action.
• The project should develop the small amount of topology needed to understand what a knot invariant is.
• The filtered images are analyzed and rotation invariant features extracted at each pixel.
• Safety is related to the concept of a loop invariant.
• You wouldn't be able to create a scale invariant picture.
• Opposite to an unstable manifold, both are types of invariant manifold.
• The question whether every Hilbert space operator has a non-trivial invariant subspace is a famous long-standing open problem.
• Those solutions belong (or asymptotically tend) to a certain invariant linear subspace - cluster manifold.
• F(a ' a ' a, ...a) =r A F(ao, a1, a2,Ã¯¿½Ã¯¿½Ã¯¿½an), 0 1 2 n the function F(ao, al, a2,...an) is then said to be an invariant of the quantic gud linear transformation.
• The operation of taking the polar results in a symbolic product, and the repetition of the process in regard to new cogredient sets of variables results in symbolic forms. It is therefore an invariant process.
• If 0 be the degree of an invariant j - aj aj a; oj =a Ã‚° a a o +al aa l +...
• A leading proposition states that, if an invariant of Xax and i ubi be considered as a form in the variables X and, u, and an invariant of the latter be taken, the result will be a combinant of cif and b1'.
• Now, when C = o, clearly (see ante) R 2 j = 6 2 p where p = S +2 B a; and Gordan then proves the relation 6R 4 .f = B65Ã¯¿½5B64p - 4A2p5, which is Bring's form of quintic at which we can always arrive, by linear transformation, whenever the invariant C vanishes.
• The simplest invariant is S = (abc) (abd) (acd) (bcd) cf degree 4, which for the canonical form of Hesse is m(1 -m 3); its vanishing indicates that the form is expressible as a sum of three cubes.
• Operating with 5l-xidxlwe find S2C 0 =o; that is to say, C Ã‚° satisfies one of the two partial differential equations satisfied by an invariant.
• The attachment locant " 4 " in each pyridine amplificant is invariant.
• Existing ' rotation invariant ' texture classification schemes can fail when the 3D textures are rotated.
• This is the famous and still open " invariant subspace problem " for operators on a Hilbert space.
• We examine our invariant measure approximation in more detail, and include encouraging numerical examples for the HÃ©non system and a nonlinear torus map.