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Ben Barber
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I know through Kirchoff's Theorem, one can calculate the number of spanning trees via the determinant of a Laplacian. This has complexity $O$(N$^{2.373}$$O(N^{2.373}$). I was wondering if anyone was aware of a method which computes this faster, at least for planar graphs.

I know through Kirchoff's Theorem, one can calculate the number of spanning trees via the determinant of a Laplacian. This has $O$(N$^{2.373}$). I was wondering if anyone was aware of a method which computes this faster, at least for planar graphs.

I know through Kirchoff's Theorem, one can calculate the number of spanning trees via the determinant of a Laplacian. This has complexity $O(N^{2.373}$). I was wondering if anyone was aware of a method which computes this faster, at least for planar graphs.

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Zach Hunter
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Counting spanning trees of a planar graph

I know through Kirchoff's Theorem, one can calculate the number of spanning trees via the determinant of a Laplacian. This has $O$(N$^{2.373}$). I was wondering if anyone was aware of a method which computes this faster, at least for planar graphs.