This　paper　presents　a　preliminary　exploration　of　the　electromagnetic　distribution　and　electromagnetic　compatibility　issues　related　to　Magnetic　Resonance　Human　Body　Communication　(MR-　HBC)　technology.　Through　the　design　of　magnetic　resonant　coils　and　finite　element　simulation　analysis,　the　distribution　of　magnetic　field　strength　and　current　density　within　the　human　body　was　evaluated.　The　results　indicate　that　both　the　magnetic　field　strength　and　current　density　decrease　logarithmically　as　the　depth　within　the　body　increases　(from　10　mm　to　150　mm).　Notably,　high　coupling　strength　remains　relatively　stable　within　a　depth　of　50　mm.　Further　analysis　confirms　that　the　induced　currents　in　MR-HBC　are　dominated　by　variations　in　the　magnetic　field,　exhibiting　the　volume　conductor　characteristics　of　human　tissue　under　specific　conditions.　MR-HBC　technology　demonstrates　excellent　electromagnetic　biocompatibility,　with　current　density　at　operational　frequencies　well　below　safety　limits,　thereby　providing　a　safe　foundation　and　theoretical　basis　for　the　application　of　implanted　and　wearable　medical　devices.