Abstract: A flap position sensing device of an active air flap system, and a method of manufacturing the same are described. The flap position sensing device includes a rotating body, a sensor casing, a first hall sensor and a second hall sensor, and a first permanent magnet and a second permanent magnet. The rotating body is formed of a resin material, and rotates the flap by receiving torque while the rotating body is coaxially fixed to a rotation shaft of the flap. The sensor casing is formed of a resin material, and is fixed to the housing to rotatably support the rotating body. The first hall sensor and the second hall sensor are integrally formed with the sensor casing by injection molding, and are disposed corresponding to an open position and a closed position, respectively, of the flap.

Abstract: A multi-purpose utility vehicle for construction and snow-removing work includes: a cargo box seated on a loading frame in the rear part of the vehicle; a continuously variable transmission combination mounted in a mounting space partitioned by a midship frame in the middle of a vehicle body; an engine assembly mounted in an engine room partitioned by a loading frame and base frames of the vehicle body at the back of the midship frame; a front wheel propeller shaft and a rear wheel propeller shaft which respectively transfer driving power outputted from the continuously variable transmission combination to a front axle combination of a front end of the vehicle body and a rear axle combination of a rear end of the vehicle body; and a PTO electromotive system extending from the front of the continuously variable transmission combination to the front of the vehicle body.

Abstract: In a walk behind mower (10) including a clutch (23) provided in a power transmission path between an electric motor (35) and driven wheels (13), a clutch actuating mechanism (24) interposed between the electric motor and the clutch for selectively engaging the clutch, and a control unit (140) for selectively supplying electric power from a power source to the electric motor according to a command from an operation switch (30), the clutch actuating mechanism includes a cam mechanism for engaging the clutch by using a force transmitted to an input end (23a) of the clutch in the power transmission path when the electric motor is being driven in a normal rotational direction, and the control unit is configured to drive the electric motor in a reverse rotational direction for a prescribed period of time before stopping supplying electric power to the electric motor when a command to stop supplying electric power to the electric motor is received from the operation switch.

Abstract: Provided is a working vehicle which includes: an engine disposed on a rear portion of a vehicle body; a gear-type transmission and an HST which are disposed on the rear portion of the vehicle body; a load-carrying platform disposed above at least one of the engine, the gear-type transmission and the HST; a driving operation part disposed in front of the load-carrying platform and allowing an operator to ride thereon; a PTO shaft mounted on a front portion of the vehicle body and being capable of taking out power to the outside of the working vehicle; and a mechanical power transmission mechanism for transmitting the power from the engine which is before the power is transmitted with a speed change by the gear-type transmission and the HST to the PTO shaft by extending below the driving operation part.

Abstract: A tractor has a base for supporting a motive power source, left and right driven wheels, and left and right transmissions for the respective left and right wheels. A handle structure is coupled to the base for grasping by an operator from behind the tractor. A drive system drives each of the left and right transmissions with motive power from the motive power source. A single lever hand control is provided for operation by a single hand of the operator for controlling both left and right transmissions seamlessly each between reverse speed through neutral and forward speed.

Abstract: Disclosed are power systems for use on various types of power machines, including an engine and a hydraulic pump assembly positioned in-line with and powered by an engine output shaft. A driving member powered by the engine has a central cavity through which access to the engine output shaft is provided to the hydraulic pump. A driven member is in communication with the driving member to receive power. The driven member is coupleable to a gearbox drive shaft that drives a gearbox, the gearbox having an output capable of driving a power take-off shaft.

Abstract: According to one embodiment, a working vehicle includes: a transmission case including a front transmission case and a rear transmission case, and a power transmission mechanism, arranged in the transmission case, configured to transmit rotating power from an engine to rear wheels or front wheels and transmit the rotating power to an implement mounted to a vehicle body, including: an input shaft; a first switching mechanism configured to switch a rotation corresponding to the rotating power to rotation in advancing direction or reversing direction; a main change speed mechanism; an auxiliary change speed mechanism; a second switching mechanism configured to switch whether to transmit the rotating power to the front wheels or not; and a PTO driving mechanism, wherein a clutch of the first switching mechanism, a clutch of the second switching mechanism and a clutch of the PTO driving mechanism are arranged in the front transmission case.

Abstract: A method and apparatus for delivering power to a hybrid vehicle is disclosed. The apparatus includes an apparatus for delivering power to a hybrid vehicle, the hybrid vehicle including a powertrain having a power take-off coupling, the powertrain including an engine and a transmission. The apparatus includes an electric motor operable to generate a torque, the motor being coupled to transmit a starting torque through the power take-off of the powertrain for starting the engine.

Abstract: A detection system for front-mounted mid-PTO driven implements includes a sensor positioned adjacent a shaft connected between a mid-PTO driveshaft and a front mounted-implement. A controller may be electrically connected to the sensor, to a fuel pump solenoid, and to a reverse sense switch that indicates to the controller if a reverse pedal is actuated. When the controller receives a signal indicating the reverse pedal is actuated, the controller does not shut off the fuel pump solenoid if the controller also receives pulse signals from the sensor within a specified frequency range based on a desired PTO speed, but shuts off the fuel pump solenoid if the controller does not receive pulse signals from the sensor or receives pulse signals from the sensor outside the specified frequency range.

Abstract: A power exchange unit (PXU) is coupled to an existing manual transmission of a vehicle via a PTO port. An electric motor generator coupled to the PXU. A battery is electrically coupled to the motor generator for supplying power to propel the vehicle. A control unit is coupled to the motor generator and the battery and configured to switch operation of the vehicle between first and second modes, wherein in the first mode an internal combustion engine of the vehicle propels the vehicle, and in the second mode the motor generator propels the vehicle in a motoring mode.

Abstract: The instant invention is an electric machine/tractor particularly intended for farming, gardening and landscaping and is nonpolluting and self charging. The tractor accommodates standard farm implements and can supply electrical power to remote areas. To achieve these goals, the machine is comprised of a frame and wheels which are driven independently by hydraulic motors powered by a variable volume, hydrostatic pump that is driven in line, by an electric motor that also drives a hydraulic lift pump and a power-take-off shaft through belts. The hydrostatic pump is controlled by the operator for forward and reverse motion. The electric motor is powered by batteries and the batteries can be recharged by an on-board photoelectric panel. A combination charger/inverter is located aboard the tractor to charge the batteries from any 110V A.C. power outlet or generate 110V A.C. electrical power from the tractor.

Abstract: A vehicle front drive assembly includes a housing supporting a plurality of belt driven pulleys, including an input pulley driven by an engine of the vehicle, a first driveshaft, a front PTO drive, and a second driveshaft. The first driveshaft can be connected directly between the engine and the input pulley. The front PTO drive has a housing rotatably supporting an input member, an auxiliary drive member and a PTO driveshaft, and enclosing a PTO transmission. A second driveshaft can be coupled between the engine and the auxiliary drive member. The first driveshaft is removable from the assembly when the second driveshaft and the front PTO drive are connected between the engine and the input pulley. The second driveshaft and the front PTO drive are removable from the assembly when the first driveshaft is connected between the engine and the input pulley.

Abstract: A control system for managing the operation of a tractor PTO using input conditions occurring in a connected baler. Baler conditions such as tailgate position, crop pickup position, bale wrapper status, and driveline torque are sensed in the baler, and communicated to an implement-mounted controller whereupon control signals are initiated and communicated to a tractor-mounted controller to manage operation of the tractor's PTO. Safety may be maintained through the use of operator acknowledgements in order to prevent unexpected engagement of the PTO and a manual override capability allows an operator to suspend automated operation at any time.

Abstract: A work vehicle including: a body frame; an engine supported by the body frame through an elastic body; a belt transmission mechanism connected to an output shaft of the engine in a power transmissive manner; and a power takeoff (PTO) mechanism connected to the belt transmission mechanism in a power transmissive manner to take out power from the engine. A PTO support bracket configured to support the PTO mechanism is attached to the engine.

Abstract: A vehicle front drive assembly includes a housing supporting a plurality of belt driven pulleys, including an input pulley driven by an engine of the vehicle, a first driveshaft, a front PTO drive, and a second driveshaft. The first driveshaft can be connected directly between the engine and the input pulley. The front PTO drive has a housing rotatably supporting an input member, an auxiliary drive member and a PTO driveshaft, and enclosing a PTO transmission. A second driveshaft can be coupled between the engine and the auxiliary drive member. The first driveshaft is removable from the assembly when the second driveshaft and the front PTO drive are connected between the engine and the input pulley. The second driveshaft and the front PTO drive are removable from the assembly when the first driveshaft is connected between the engine and the input pulley.

Abstract: A rotary broom mounts upon a slotted plate that pivots upon a double gearbox. The broom has bristles upon an axle within a shield that receives power from a chain drive that receives its power from a driveline from a top gear box. The top gearbox orients in the direction of the chain driveline and delivers its power through an output shaft. The top gearbox joins to a slotted plate that turns in the same direction as the broom. The top gear box receives its power through an input shaft perpendicular to the output shaft. The top gearbox input shaft extends downwardly and becomes the output shaft of the bottom gearbox. The bottom gearbox has an input shaft that connects to a power take off. This rotary broom receives rotational power, rotates it 90° upwardly, then rotates it 90° downwardly and at an angle laterally to drive the broom.

Abstract: A motor vehicle with a system for conditioning power take-off enablement has a powerplant, including an internal combustion engine, for propelling the vehicle. The powerplant is disposed within a compartment. A hood is positionable relative to the compartment to selectively allow and disallow access to the compartment. A power take-off unit comprises an input mechanically coupled to the powerplant and selectively enabled by a controller for coupling an output of the power take-off unit to the input of the power take-off unit when enabled by the controller and uncoupling the output of the power take-off unit from the input of the power take-off unit when not enabled by the controller. A device whose status distinguishes between the hood allowing access to the compartment and the hood disallowing access to the compartment causes the controller not to enable the power take-off unit when the device discloses that the hood is allowing access to the compartment.

Abstract: Disclosed is a cleaning system for removing coatings from a hard surface by high pressure liquid. The system employs a combination liquid and vacuum reservoir connected to a high pressure pump for directing ultra high pressure water through a blast head mounted on a front portion of the vehicle. The cleaning system is preferably mounted on a single truck with a single prime mover. The drive-line of the vehicle is constructed and arranged to operate in two distinct modes, e.g. a transport mode and a work mode. In the transport mode, a first transmission coupled to the rear portion of the prime mover delivers torque from the engine to the rear wheels of the vehicle. In the work mode, the prime mover is utilized to mechanically drive the bed mounted equipment as well as provide motive force in the form of mechanical-hydrostatic transmission to propel the system at a speed suitable for marking removal.

Abstract: A soft start clutch system and method of implementing a soft start clutch system including a soft start clutch configured to drivingly connect to a machinery drive input to an engine transmission, including a transmission PTO attached to the transmission and drivingly connected to the soft start clutch, and a control circuit configured to engage the soft start clutch at a first rate and configured to disengage the soft start clutch at a second rate which is different than the first rate.

Abstract: A drive assembly for an agricultural machine. A power take off (PTO) output shaft is connected to a driving motor for driving an attachment. A drive transmission is positioned between and interconnects the driving motor and the support wheels of the agricultural machine. An input device is connected to an electronic control unit. A sensor senses the torque transferred between an attachment and the PTO output shaft, and an actuator is configured to change the transmission ratio of the drive transmission, thereby setting the propulsion speed of the agricultural machine such that the torque transferred between the PTO output shaft and an attachment does not exceed a pre-determined value. The electronic control unit further receives data from the input device and calculates a pre-determined value based on the data received, and thereafter controls the actuator accordingly.

Abstract: A transmission system for transmitting power through a traveling transmission line and also through a PTO transmission line is disclosed. The system includes a clutch housing and a base transmission case connected via a housing frame. The base transmission case includes a front end opening and a rear end opening. A differential case is connected to the rear end opening. The front end opening is selectively connected with either a gear change speed case having a gear change speed mechanism or an HST case having an HST mechanism. When the gear change speed mechanism is selectively used, a PTO power output portion communicates with the PTO transmission line and a traveling power output portion communicates with the traveling transmission line. When the HST mechanism is selectively used, a pump shaft communicates with the PTO transmission line and a motor shaft communicates with the traveling transmission line.

Abstract: A vehicle or equipment having a frame, a plurality of wheels, and an engine coupled to the frame. The engine includes a shaft. The vehicle or machine further comprising a first driving member coaxially coupled with the shaft, a first driven member driven in response to the first driving member, a transmission interconnecting the first driven member and at least one of the wheels, a second driving member coaxially coupled with the shaft, a second driven member driven in response to the second driving member, auxiliary equipment operable in response to the second driven member, and an alternator. The alternator includes a stator comprising a core and conductors disposed on the core, and a rotor coaxially coupled with the shaft. The rotor is operable to interact with the stator to produce electrical energy in the conductors.

Abstract: A snow removing machine having an electromagnetic clutch mounted to an output shaft of an engine, and a drive pulley. The electromagnetic clutch is mounted to a proximal end of the output shaft to be remotely separate from the engine. As a result, heat generated in the engine during operation thereof is not directly transferred to the electromagnet clutch whose magnetic force generated during operation is not deteriorated. The drive pulley is mounted to the output shaft at an area closer to the engine. The drive pulley has a lower weight than the electromagnet clutch, thereby mitigating load to be exerted to a part which supports the output shaft.

Abstract: A removable shaft assembly having a drive shaft with internal splines defined therein and an output shaft positioned within the drive shaft and having a first set of external splines defined thereon adapted to engage the internal splines of the drive shaft is disclosed. The assembly further includes a cap axially aligned with the drive shaft having internal splines defined thereon which are adapted to prevent an axial movement of the output shaft relative to the drive shaft when the cap is in a first position and hallow axial movement of the output shaft relative to the drive shaft when the cap is in a second position. The output shaft may be removed from the drive shaft when the cap is placed in the first position by axially sliding the first set of external splines through the internal splines of the cap. A method of operating a removable shaft assembly is also disclosed.

Abstract: A quick detachable drive shaft for use with lawn tractors having a rearward end mounted to a power source and a forward end supported by a bearing detachably mounted to a plate that is detachably connected to a bracket on the tractor with a latch that maintains the plate in connection with the bracket in a first position and releases the plate from the bracket in second position.

Abstract: A pass-through transmission for a towing vehicle such as a small tractor or the like is adapted to provide a torque-transmitting connection of a power take-off unit of the towing vehicle to a front-mounting implement such as a sweeper brush. The transmission can be temporarily fixed to the underside of the towing vehicle by latching engagement without involving the use of a tool for fixing purposes so that the transmission can be quickly and easily fitted to and removed from the towing vehicle.

Abstract: A working vehicle having a main transaxle casing supporting a first PTO shaft and a center-pivot transaxle casing supporting second PTO shaft, improved in a transmission system for the second PTO shaft. Particularly, the center-pivot transaxle casing is provided at the portion thereof lower than its pivot with the second PTO shaft. The output power of the first PTO shaft is transmitted to the second PTO shaft by a propeller shaft and universal joints. If a working machine to be driven by the first PTO shaft is disposed between the both transaxle casings, the output power of the first PTO shaft is transmitted to the working machine, and afterward to the second PTO shaft.

Abstract: A control system is disclosed for controlling a power takeoff (PTO) shaft of a work vehicle (e.g., a tractor). The work vehicle includes an engine and an operator station, and the PTO shaft transfers power from the engine to an implement. The control system includes a remote switch, a vehicle speed sensor, and a control circuit. The remote switch is located remotely from the operator station and provides a remote switch signal to the control circuit to engage and disengage rotational movement of the PTO shaft. The vehicle speed sensor provides a vehicle speed signal to the control circuit representative of a speed of the work vehicle. The control circuit receives the remote switch signal and the vehicle speed signal and, when the vehicle speed signal exceeds a predetermined vehicle speed, the control circuit prevents engagement and disengagement of the PTO shaft with the remote switch.

Abstract: A control system is disclosed for controlling a power takeoff (PTO) shaft of a work vehicle (e.g., a tractor). The work vehicle includes an engine and an operator station, and the PTO shaft transfers power from the engine to an implement. The control system includes a remote switch, a vehicle speed sensor, and a control circuit. The remote switch is located remotely from the operator station and provides a remote switch signal to the control circuit to engage and disengage rotational movement of the PTO shaft. The vehicle speed sensor provides a vehicle speed signal to the control circuit representative of a speed of the work vehicle. The control circuit receives the remote switch signal and the vehicle speed signal and, when the vehicle speed signal exceeds a predetermined vehicle speed, the control circuit prevents engagement and disengagement of the PTO shaft with the remote switch.