For two vertices \(u\) and \(v\) in a strong oriented graph \(D\), the strong distance \(\operatorname{sd}(u,v)\) between \(u\) and \(v\) is the minimum size (the number of arcs) of a strong sub-digraph of \(D\) containing \(u\) and \(v\). For a vertex \(v\) of \(D\), the strong eccentricity \(\operatorname{se}(v)\) is the strong distance between \(v\) and a vertex farthest from \(v\). The strong radius \(\operatorname{srad}(D)\) is the minimum strong eccentricity among the vertices of \(D\). The strong diameter \(\operatorname{sdiam}(D)\) is the maximum strong eccentricity among the vertices of \(D\). In this paper, we investigate the strong distances in strong oriented complete \(k\)-partite graphs. For any integers \(\delta, r, d\) with \(0 \leq \delta \leq \lceil\frac{k}{2}\rceil, 3 \leq r \leq \lfloor\frac{k}{2}\rfloor, 4 \leq d \leq k\), we have shown that there are strong oriented complete \(k\)-partite graphs \(K’, K”, K”’\) such that \(\operatorname{sdiam}(K’) – \operatorname{srad}(K’) = \delta, \operatorname{srad}(K”) = r\), and \(\operatorname{sdiam}(K”’) = d\).