In this work, we investigate Maker-Breaker directed triangle games -- a directionally constrained variant of the classical Maker-Breaker triangle game. Our board of interest is a tournament, and the winning sets constitute all directed triangles ($3$-cycles) present in the tournament. We begin by studying the Maker-Breaker directed triangle game played on a specially defined tournament called the parity tournament, and we identify the board size threshold to be $n=7$, which is to say that if the size (i.e.\ the number of vertices) of the parity tournament equals $n$, Breaker has a winning strategy for $3\leq n< 7$, while Maker can ensure a win for herself for $n\geq 7$. For the $(1:b)$ biased version of this game, we prove that the bias threshold $b^*(n)$ satisfies $\sqrt{\left(1/12+o(1)\right)\ n}\leq b^{*}(n) \leq\sqrt{\left(8/3+o(1)\right)\ n}$, which matches the order of magnitude (\ $\sqrt{n}$) of the bias threshold for the undirected counterpart of this game. Next, we consider the game on random tournaments $T(n,p)$ with labeled vertices $1,2,\ldots,n$, such that the edge between $i$ and $j$, for each $i
