The　intrinsic　magnetic　topological　insulator　MnBi2Te4　(MBT)　provides　a　platform　for　the　creation　of　exotic　quantum　phenomena.　Novel　properties　can　be　created　by　modification　of　the　MnBi2Te4　framework,　but　the　design　of　stable　magnetic　structures　remains　challenging.　Here　we　report　ferromagnet-intercalated　MnBi2Te4　superlattices　with　tunable　magnetic　exchange　interactions.　Using　molecular　beam　epitaxy,　we　intercalate　ferromagnetic　MnTe　layers　into　MnBi2Te4　to　create　[(MBT)(MnTe)(m)](N)　superlattices　and　examine　their　magnetic　interaction　properties　using　polarized　neutron　reflectometry　and　magnetoresistance　measurements.　Incorporation　of　the　ferromagnetic　spacer　tunes　the　antiferromagnetic　interlayer　coupling　of　the　MnBi2Te4　layers　through　the　exchange-spring　effect　at　MnBi2Te4/MnTe　hetero-interfaces.　The　MnTe　thickness　can　be　used　to　modulate　the　relative　strengths　of　the　ferromagnetic　and　antiferromagnetic　order,　and　the　superlattice　periodicity　can　tailor　the　spin　configurations　of　the　synthesized　multilayers.