Let $I, J$ be two bases of a matroid. For every $x$ in $I$, there is some $y$ in $J$ such that, if we exchange $x$ with $y$, then both resulting sets ($I \setminus x \cup y$ and $J \setminus y \cup x$) are bases (this is the [strong basis exchange property][1]).

Can we extend this property as follows: there exists a bijection $f$ between $I\setminus J$ and $J\setminus I$, such that for every $x$ in $I$, if we exchange $x$ with $f(x)$, then both resulting sets are bases?

The nearest result I found was in [lecture notes by Goemans][2]. In Lemma 5, he proves that there is a perfect matching between $I\setminus J$ and $J\setminus I$ in a bipartite graph that he denotes by $D_M(I)$. This means that for every $x$ in $I$, if we exchange $x$ with $f(x)$, then $I \setminus x \cup f(x)$ is a base. But, it does not imply that  $J \setminus f(x) \cup x$ is base too.

  [1]: https://blog.zilin.one/2019/11/03/on-the-basis-exchange-property/
  [2]: https://math.mit.edu/~goemans/18438F09/lec11.pdf