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It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of Thisthis paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See Thisthis paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of this paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See this paper.

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Francois Ziegler
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It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paperThis paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

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It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paperThis paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

It was shown by Alan Turing that (in a certain precise sense) the only connected Lie groups approximable by finite groups are the compact abelian Lie groups, i.e. $U(1)^n$. See Theorem 2 of This paper.

If you allow infinite discrete subgroups then an approximable connected Lie group must be nilpotent and further any simply-connected nilpotent Lie group is approximable. See This paper.

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