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   <subfield code="a">On Birational Darboux Coordinates on Coadjoint Orbits of Classical Complex Lie Groups</subfield>
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   <subfield code="c">[M. Babich]</subfield>
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   <subfield code="a">Any coadjoint orbit of the general linear group can be canonically parameterized using an iteration method, where at each step we turn from the matrix of a transformation A to the matrix of the transformation that is the projection of A parallel to an eigenspace of this transformation to a coordinate subspace. We present a modification of the method applicable to the groups SO N ℂ $$ \mathrm{SO}\left(N,\mathrm{\mathbb{C}}\right) $$ and S p N ℂ $$ \mathrm{S}\mathrm{p}\left(N,\mathrm{\mathbb{C}}\right) $$ . One step of the iteration consists of two actions, namely, the projection parallel to a subspace of an eigenspace and the simultaneous restriction to a subspace containing a co-eigenspace. The iteration gives a set of couples of functions p k , q k on the orbit such that the symplectic form of the orbit is equal to ∑ k d p k ^ d q k $$ {\displaystyle \sum_kd{p}_k\hat{\mkern6mu} d{q}_k} $$ . No restrictions on the Jordan form of the matrices forming the orbit are imposed. A coordinate set of functions is selected in the important case of the absence of nontrivial Jordan blocks corresponding to the zero eigenvalue, which is the case dim ker A = dim ker A 2. It contains the case of general position, the general diagonalizable case, and many others.</subfield>
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