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   <subfield code="a">Enveloping algebras of Slodowy slices and Goldie rank</subfield>
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   <subfield code="c">[Alexander Premet]</subfield>
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   <subfield code="a">Let $ U\left( {\mathfrak{g},e} \right) $ be the finite W-algebra associated with a nilpotent element e in a complex simple Lie algebra $ \mathfrak{g} = {\text{Lie}}(G) $ and let I be a primitive ideal of the enveloping algebra $ U\left( \mathfrak{g} \right) $ whose associated variety equals the Zariski closure of the nilpotent orbit (Ad G) e. Then it is known that $ I = {\text{An}}{{\text{n}}_{U\left( \mathfrak{g} \right)}}\left( {{Q_e}{ \otimes_{U\left( {\mathfrak{g},e} \right)}}V} \right) $ for some finite dimensional irreducible $ U\left( {\mathfrak{g},e} \right) $ -module V, where Q e stands for the generalised Gelfand-Graev $ \mathfrak{g} $ -module associated with e. The main goal of this paper is to prove that the Goldie rank of the primitive quotient $ {{{U\left( \mathfrak{g} \right)}} \left/ {I} \right.} $ always divides dim V. For $ \mathfrak{g} = \mathfrak{s}{\mathfrak{l}_n} $ , we use a theorem of Joseph on Goldie fields of primitive quotients of $ U\left( \mathfrak{g} \right) $ to establish the equality $ {\text{rk}}\left( {{{{U\left( \mathfrak{g} \right)}} \left/ {I} \right.}} \right) = \dim V $ . We show that this equality continues to hold for $ \mathfrak{g} \ncong \mathfrak{s}{\mathfrak{l}_n} $ provided that the Goldie field of $ {{{U\left( \mathfrak{g} \right)}} \left/ {I} \right.} $ is isomorphic to a Weyl skew-field and use this result to disprove Joseph's version of the Gelfand-Kirillov conjecture formulated in the mid-1970s.</subfield>
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