3D　printing　electronics　provides　great　potential　to　build　structural　objects　with　multiple　functionalities,　with　the　assistance　of　shape　design　and　the　shear　force　on　the　filler　orientation.　In　the　study,　nano-microanisotropic　sensors　with　oriented　fillers　assure　its　linear　sensitive　properties,　where　the　sensors　are　3D-printed　based　upon　the　carbon　fiber　(CF)-　and　multiwalled　carbon　nanotube　(MCNT)-filled　polydimethylsiloxane　(PDMS).　The　synergistic　effect　of　CF　and　MCNT　modifies　the　printability,　mechanical　properties,　and　sensitivity　of　printed　sensors.　The　introduction　of　anticatalyst　and　catalyst　guarantee　the　printable　mixtures　with　a　stable　printability　in　a　long　term　(＞15　days).　Assisted　by　the　shear　flow,　the　fillers　own　the　orientation　ration　of　78.53%,　which　further　contribute　to　the　linear　sensing　behaviors　under　the　tensile　strain　of　0-20%　and　compressive　stress　of　0-20　kPa.　Frequency-domain　signals　and　visual　demonstration　on　the　cyclic　stretch　test　reveal　that　the　double　peak　is　originated　from　the　hysteresis　of　the　strain　to　applied　stress.　Anisotropic　electromechanical　behaviors　of　the　resistors　will　inspire　to　quantitatively　analyze　multidimensional　strains　in　practical　applications.　The　fingerprint　inspired　resistors　with　multiple　sensing　signals　further　demonstrate　the　convenience　of　the　printing　process　on　the　design　of　wearable　electronics.