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Suppose you take a $G(n,p)$ random graph for a fixed probability $p$ and find a spanning tree using Kruskal's algorithmKruskal's algorithm. If you now repeat this process indefinitely, will every tree on $n$ vertices appear with the same frequency?

In other word: are some trees more likely than others to be spanning trees of a random graph?

Suppose you take a $G(n,p)$ random graph for a fixed probability $p$ and find a spanning tree using Kruskal's algorithm. If you now repeat this process indefinitely, will every tree on $n$ vertices appear with the same frequency?

In other word: are some trees more likely than others to be spanning trees of a random graph?

Suppose you take a $G(n,p)$ random graph for a fixed probability $p$ and find a spanning tree using Kruskal's algorithm. If you now repeat this process indefinitely, will every tree on $n$ vertices appear with the same frequency?

In other word: are some trees more likely than others to be spanning trees of a random graph?

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Felix Goldberg
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How random are random spanning trees?

Suppose you take a $G(n,p)$ random graph for a fixed probability $p$ and find a spanning tree using Kruskal's algorithm. If you now repeat this process indefinitely, will every tree on $n$ vertices appear with the same frequency?

In other word: are some trees more likely than others to be spanning trees of a random graph?