The　ability　of　electronic　skin　to　detect　and　distinguish　multiple　tactile　stimuli　is　important　to　properly　mimic　human　skin.　Although　a　few　dual-parameter　sensors　have　recently　been　designed　to　identify　the　most　common　tactile　stimuli　such　as　pressure　and　heat,　it　remains　a　difficult　task　to　develop　a　dual-parameter　sensor　that　is　free　from　signal　interference,　easy　to　prepare,　and　signal　readout,　and　requires　no　bias　voltage.　Here,　we　develop　a　simple　but　effective　vertical　stacking　of　sensing　components　strategy　for　high-performance　dual-parameter　sensing　systems,　in　which　multiwalled　carbon　nanotubes　(MWCNTs)/textile　and　PEDOT:PSS/photopaper　were　designed　as　pressure-　and　thermal-sensitive　components,　and　a　layer　of　double-sided　tape　with　a　thickness　of　200　mu　m　is　sandwiched　between　two　sensitive　components　for　electrical　and　thermal　isolation.　The　dual-parameter　sensor　exhibits　good　sensing　performance　in　terms　of　sensitivity,　response　time,　detection　range,　and　stability　for　both　pressure　and　temperature　detection.　More　importantly,　the　tactile　inputs　of　pressure　and　temperature　can　be　distinguished　without　signal　decoupling.　The　preparation　of　the　dual-parameter　sensor　is　simple　and　low　cost,　and　its　requirements　for　the　readout　device　are　as　low　as　a　single-chip　microcomputer.　This　work　provides　a　promising　prototype　for　multiparameters　e-skin,　which　has　great　potential　for　applications　in　robot　applications,　human-computer　interaction,　and　intelligent　wearable　devices.