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The answer to the question is Yes.

Consider the complete graph on $n$ vertices with one edge removed. It is easy to see that the 2 vertices adjacent to the sole edge that was removed are the only ones that are not popular. So the share of popular vertices is $\frac{m-2}{m}$$\frac{n-2}{n}$, which converges to 1$1$ as m$n$ grows large.

The answer to the question is Yes.

Consider the complete graph on $n$ vertices with one edge removed. It is easy to see that the 2 vertices adjacent to the sole edge that was removed are the only ones that are not popular. So the share of popular vertices is $\frac{m-2}{m}$, which converges to 1 as m grows large.

The answer to the question is Yes.

Consider the complete graph on $n$ vertices with one edge removed. It is easy to see that the 2 vertices adjacent to the sole edge that was removed are the only ones that are not popular. So the share of popular vertices is $\frac{n-2}{n}$, which converges to $1$ as $n$ grows large.

Source Link

The answer to the question is Yes.

Consider the complete graph on $n$ vertices with one edge removed. It is easy to see that the 2 vertices adjacent to the sole edge that was removed are the only ones that are not popular. So the share of popular vertices is $\frac{m-2}{m}$, which converges to 1 as m grows large.