A selector apparatus comprises a shift lever operably supported on a base for movement between gear positions, and a feel positioner mechanism with offset detent members, where a first detent engages first undulations for biasing the shift lever toward a center of a selected gear position from a first direction, and a second detent engages second undulations for biasing the selector lever toward the center of the selected gear position from a different second direction to the common center point. By the arrangement, the first and second undulations define opposing angled slopes toward the common center point. This allows the undulations to be designed to provide any desired level of biasing force toward the center point without the limitations of a single undulation defining the center point.

A gear shift operation device for a vehicle to which a multiple-stage automatic transmission is mounted, is provided. By a control lever being manually operated in a range switchable mode, a range position is switched at least between a D-range where automatic transmission is performed and an R-range, and by the control lever being manually operated in a manual transmission mode, a gear change is performed. An operation reaction force when the control lever is manually operated is set larger when the gear change is performed in the manual transmission mode than when the range position is switched in the range switchable mode.

A vehicle transmission shifter assembly including a housing pivotally supporting a shifter lever between Park, Reverse, Neutral, Drive and Manual shifter positions. A plurality of gate locations configured upon an underside of the housing and corresponding to each of Park, Reverse, Neutral and Drive gear positions. A gate lock incorporated into the lever and biased against a selected one of the gate locations. A PCB board with processor and sensor integrated into the housing communicating with a motor connected to the shifter lever. Upon the processor determining existence of a return to park condition, a return to park mechanism actuates the motor for returning the shifter lever to the Park position.

In a shift device, a changing mechanism displaces a carrier to thereby change a rotation stratum in which the carrier is disposed and change rotation paths with which detent pins of the carrier are engaged. For this reason, to change the rotation paths with which the detent pins are engaged, the changing mechanism needs only to displace the carrier, and so the configuration of the changing mechanism can be simplified.

A vehicle transmission shifter assembly including a housing pivotally supporting a shifter lever between Park, Reverse, Neutral, Drive and Manual shifter positions. A plurality of gate locations configured upon an underside of the housing and corresponding to each of Park, Reverse, Neutral and Drive gear positions. A gate lock incorporated into the lever and biased against a selected one of the gate locations. A PCB board with processor and sensor integrated into the housing communicating with a motor connected to the shifter lever. Upon the processor determining existence of a return to park condition, a return to park mechanism actuates the motor for returning the shifter lever to the Park position.

A rotary shift knob having a telescopic structure including a knob and a housing that are secured together to move axially and pivotally relative to each other within a limited range in either direction. The knob and housing are moved axially relative to each other to shift into the park position from the other positions. The inner and outer members are pivoted relative to each other to shift between reverse, neutral and drive positions. The knob is connected by a shaft to a piston that moves within a cavity defined by the housing.

An actuator for activating a plurality of operating functions in a technical system may include one or more of the following: a rotary knob, the rotary knob being rotatable about a rotational axis to an actuation position corresponding to a first operating function of a plurality of operating functions; a first sensor unit, where the actuation position is detectable by the first sensor unit such that a corresponding actuation position signal is sent to a control unit of the technical system causing activation of the first operating function; a second sensor unit for sending a shut-off signal to the control unit, where the technical system is set to a basic function of the plurality of operating functions upon receipt of the shut-off signal; and at least one sliding track partially encircling the rotary knob radially over an angle of less than 360.

A gear shift operation device for a vehicle to which a multiple-stage automatic transmission is mounted, is provided. By a control lever being manually operated in a range switchable mode, a range position is switched at least between a D-range where automatic transmission is performed and an R-range, and by the control lever being manually operated in a manual transmission mode, a gear change is performed. An operation reaction force when the control lever is manually operated is set larger when the gear change is performed in the manual transmission mode than when the range position is switched in the range switchable mode.

A parking mechanism for use in a vehicle and method of operation thereof. The parking mechanism includes one or more actuation mechanisms, a parking pawl and a parking gear. At least a portion of the one or more actuation mechanisms are drivingly connected to at least a portion of a cam. The parking pawl has one or more parking pawl teeth extending therefrom that are selectively engagable with at least a portion of one or more parking gear teeth extending from an outer surface of a body portion of the parking gear. The parking pawl also includes a parking pawl pin aperture having a size and shape needed to receive and/or retain at least a portion of a parking pawl pin therein.

A shifting device for a transmission is disclosed. The shifting device comprises a transmission shaft, a shift gear being mounted thereon, wherein the shift gear is configured with a connecting hub which is axially displaceable relative to the transmission shaft, wherein the connecting hub has an internal toothing in engagement with an external toothing of the transmission shaft, so that the shift gear is drive-connected to the transmission shaft in an axially displaceable manner therewith. A latching device is further provided, the shift gear being axially displaceable thereby into a plurality of latching positions. The latching device comprises a spring-pretensioned setting pin displaceably mounted radially to the transmission shaft and in engagement with a setting shaft rotatably mounted in the transmission shaft, such that the setting shaft and the setting pin can be brought out of an unlocked position into a locked position and vice-versa by rotating the setting shaft.