Integration　of　a　quantum　anomalous　Hall　insulator　with　a　magnetically　ordered　material　provides　an　additional　degree　of　freedom　through　which　the　resulting　exotic　quantum　states　can　be　controlled.　Here,　an　experimental　observation　is　reported　of　the　quantum　anomalous　Hall　effect　in　a　magnetically-doped　topological　insulator　grown　on　the　antiferromagnetic　insulator　Cr2O3.　The　exchange　coupling　between　the　two　materials　is　investigated　using　field-cooling-dependent　magnetometry　and　polarized　neutron　reflectometry.　Both　techniques　reveal　strong　interfacial　interaction　between　the　antiferromagnetic　order　of　the　Cr(2)O(3)and　the　magnetic　topological　insulator,　manifested　as　an　exchange　bias　when　the　sample　is　field-cooled　under　an　out-of-plane　magnetic　field,　and　an　exchange　spring-like　magnetic　depth　profile　when　the　system　is　magnetized　within　the　film　plane.　These　results　identify　antiferromagnetic　insulators　as　suitable　candidates　for　the　manipulation　of　magnetic　and　topological　order　in　topological　insulator　films.