An electronic smoking article (100, 200) comprising: a control body (102, 202) formed of a housing (116, 201) that includes: a control component (106, 206); a sensor (108, 208); a battery (110, 210); an LED (112, 212); a haptic feedback component (101, 220); and a haptic driver; and a cartridge (104, 204) formed of a housing (126, 203) that includes: a reservoir (144, 244); a heater (134, 234); a transport element (136, 236) adapted to transport an aerosol precursor composition stored in the reservoir (144, 244) to the heater (134, 234); and an opening (128, 228) in the housing (126, 203) that allows for egress of formed aerosol from the cartridge (104, 204); wherein the cartridge (104, 204) is adapted to engage the control body (102, 202) through a press-fit engagement to establish a connection between the control body (102, 202) and the cartridge (104, 204) as well as to establish an electrical connection between the battery (110, 210) and the control component (106, 206) in the control body (102, 202) and the heater (134, 234) in the cartridge (104, 204); and wherein the haptic driver is in electrical communication with the control component (106, 206) and a haptic feedback component (101, 220) such that the control component (106, 206) and the haptic driver direct the haptic feedback component (101, 220) to form haptic feedback that is defined by different waveforms; and wherein the haptic driver is adapted to convert one or more signals from the control component (106, 206) to an output that directs the haptic feedback component (101, 220) to form the haptic feedback. a control component (106, 206); a sensor (108, 208); a battery (110, 210); an LED (112, 212); a haptic feedback component (101, 220); and a haptic driver; and a cartridge (104, 204) formed of a housing (126, 203) that includes: a reservoir (144, 244); a heater (134, 234); a transport element (136, 236) adapted to transport an aerosol precursor composition stored in the reservoir (144, 244) to the heater (134, 234); and an opening (128, 228) in the housing (126, 203) that allows for egress of formed aerosol from the cartridge (104, 204); wherein the cartridge (104, 204) is adapted to engage the control body (102, 202) through a press-fit engagement to establish a connection between the control body (102, 202) and the cartridge (104, 204) as well as to establish an electrical connection between the battery (110, 210) and the control component (106, 206) in the control body (102, 202) and the heater (134, 234) in the cartridge (104, 204); and wherein the haptic driver is in electrical communication with the control component (106, 206) and a haptic feedback component (101, 220) such that the control component (106, 206) and the haptic driver direct the haptic feedback component (101, 220) to form haptic feedback that is defined by different waveforms; and wherein the haptic driver is adapted to convert one or more signals from the control component (106, 206) to an output that directs the haptic feedback component (101, 220) to form the haptic feedback. a reservoir (144, 244); a heater (134, 234); a transport element (136, 236) adapted to transport an aerosol precursor composition stored in the reservoir (144, 244) to the heater (134, 234); and an opening (128, 228) in the housing (126, 203) that allows for egress of formed aerosol from the cartridge (104, 204); wherein the cartridge (104, 204) is adapted to engage the control body (102, 202) through a press-fit engagement to establish a connection between the control body (102, 202) and the cartridge (104, 204) as well as to establish an electrical connection between the battery (110, 210) and the control component (106, 206) in the control body (102, 202) and the heater (134, 234) in the cartridge (104, 204); and wherein the haptic driver is in electrical communication with the control component (106, 206) and a haptic feedback component (101, 220) such that the control component (106, 206) and the haptic driver direct the haptic feedback component (101, 220) to form haptic feedback that is defined by different waveforms; and wherein the haptic driver is adapted to convert one or more signals from the control component (106, 206) to an output that directs the haptic feedback component (101, 220) to form the haptic feedback.