No, there are compact Hausdorff spaces without any non-trivial (trivial meaning eventually constant) convergent subsequences,like $\beta \omega$, the Cech-Stone compactification of the natural numbers. compact non-sequentially compact spaces like $[0,1]^I$ for $I$ of size $|\mathbb{R}|$. For so-called sequential spaces, which include the first countable and the metric ones, this implication does hold.
The Bolzano-Weierstrass peoperty is now called being sequentially compact, BTW.
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"Every sequence has a convergent subsequence" is the property nowadays called "sequentially compact". It is not equivalent to "compact" for Hausdorff spaces. But it is equivalent for metric spaces.
No, there are compact Hausdorff spaces without any non-trivial (trivial meaning eventually constant) convergent subsequences,like $\beta \omega$, the Cech-Stone compactification of the natural numbers. compact non-sequentially compact spaces like $[0,1]^I$ for $I$ of size $|\mathbb{R}|$. For so-called sequential spaces, which include the first countable and the metric ones, this implication does hold. The Bolzano-Weierstrass peoperty is now called being sequentially compact, BTW.