The present invention comprises: a transmission device that shifts output to a travel unit from an engine by changing the position of a slide gear; a motor that changes the position of a ride gear; a cross-lever main transmission lever that is operable in the front-rear and left-right directions and is biased to return to a neutral operation position; and a control device that is configured so as to actuate the motor in response to the front-rear operation of the main transmission lever to switch the shift position of the transmission device and vary the function to be performed by the left-right operation of the main transmission lever according to the shift position of the transmission device.

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 vehicle shifter assembly having a housing rotatably supporting a monostable toggle knob accessible to a vehicle operator. A processor enabled printed circuit board is incorporated into the housing and, upon actuation of the knob, instructs a gear shift condition to a display component. The housing can be incorporated into any of a variety of locations accessible to the vehicle operator, including being integrated into the steering wheel so that, and upon rotation of the wheel, the housing or display is continuously reoriented so as to maintain an upright position as viewed by the operator.

A rotary shifter having a knob bi-directionally and biasingly supported upon a housing in a monostable and return-to-center orientation. A printed circuit board assembly is incorporated into the housing and includes a sensor and a processor. A spur gear is rotatably supported within the housing and actuated by the knob, the spur gear supporting a magnet in proximity to the sensor. Rotation of the knob causing rotational displacement of the magnet relative to the sensor in order for the processor to instruct a change in shifter position. The knob incorporating a graphical display for indicating a current shifter position of the assembly.

A rattle reduction device for a dial type shifting apparatus is provided and includes a damper provided to be fixed to a main housing, and a protrusion formed on a component configured to rotate with respect to the main housing and configured to reduce a return rotation speed of a shift dial by contacting the damper when the shift dial returns from a position of a Nd stage or a D stage to a Null stage or returns from a position of a Nr stage or a R stage to the Null stage, thereby reducing rattle.

The invention pertains to a force transmitting device (100) for a transmission (200), particularly of a motorcycle, with a shift assist system, featuring a shift input shaft (30) with a shift lever connection (20) for receiving a shifting motion of a shift lever (300) and a transmission connection (40) for transmitting the shifting motion to a gear shifting gate (110) of the transmission (100), wherein the shift input shaft (30) features an energy accumulator (32) for the intermediate storage of at least part of the shifting force such that the relative motion between the shift lever connection (20) and the transmission connection (40) can be realized by changing the shifting force stored in the energy accumulator (32), and wherein the shift input shaft (30) features a sensor device (60) for detecting the relative motion between the shift lever connection (20) and the transmission connection (40).

A method is provided for alternately triggering driving states of a utility vehicle. The method includes providing a control element and a transmission selectively engageable in a forward driving state (F) for forward travel of the utility vehicle, a reverse driving state (R) for reverse travel, and a standstill driving state (S) for a stationary output of the transmission without disconnection of the drivetrain in the utility vehicle. The method further includes operating the transmission in a current driving state, operably selecting a target driving state while operating in the current driving state, and controllably triggering the transmission to the standstill driving state before shifting the transmission to the target driving state.

An automatic transmission shifter mechanism that is selectable between an automatic transmission mode and a manual shifting mode, including a shifter assembly, a pin attached to the shifter assembly, a first slotted plate to selectively receive a first portion of the shifter assembly, and a detent plate configured to receive the pin at different gear positions, wherein selected shifter assembly positions in the automatic transmission mode are maintained by the pin being located within a corresponding detent of the detent plate, and wherein movement of the first portion of the shifter assembly into the first slotted plate causes the pin to move out of range of detents in the detent plate such that an operator can shift between drive gears in the manual shifting mode.

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 control assembly for use with a vehicle having a pivot arm for controlling output of the vehicle includes a bracket, a yoke attached to the pivot arm, and a shaft engaged to the yoke and extending into the bracket. The pivot arm is rotatable about a first axis of rotation between a neutral position and a plurality of forward positions and a plurality of reverse positions. When in the neutral position, the pivot arm may also rotate about a second axis of rotation between an operative position and a stopped position, and a switch may be engaged when the pivot arm is rotated to the stopped position. A return to neutral assembly may provide a return force to the pivot arm when it is rotated about the first axis of rotation away from the neutral position.