Abstract: Disclosed is a vehicular device comprising a tether. The tether is anchored at a first point to the frame of the vehicle, and at a second point to the knuckle of a front wheel of the vehicle, wherein the knuckle couples the front wheel to the frame. The locations of the first anchor point and second anchor point, along with the length of the tether and the routing of the tether within the vehicle, are selected such that in a collision event between the front wheel and a barrier, when the knuckle becomes separated from the frame, the motion of the front wheel is constrained to exert force on both the barrier and the frame of the vehicle.

Abstract: Methods and systems are provided for a powertrain mount assembly. The assembly comprises a tether configured to block movement of a powertrain component relative to a support frame in the event of a vehicle collision.

Abstract: A utility vehicle includes: a seat arranged in a vehicle interior; a seat mounting frame to which the seat is mounted; a vehicle body frame to which the seat mounting frame is mounted; and a seat cover that is arranged below the seat, and defines a lower side of the vehicle interior and covers the seat from below. The seat mounting frame and the vehicle body frame are arranged above and below the seat cover and are mounted so as to sandwich the seat cover. The seat of one of multiple seat types is mounted to the vehicle body frame via the seat mounting frame above the seat cover common to the multiple seat types.

Abstract: A vehicle of an embodiment includes a driving device including a rotating electric machine, a case configured to accommodate the rotating electric machine and a PCU that is disposed on a side opposite to a side at which a load is input when the vehicle collides with an object, that is disposed in front of the case and that is configured to supply electric power to the rotating electric machine, a support section that is provided in the driving device and that is configured to come in contact with a vehicle body frame of the vehicle, and an impact attenuating section that is provided on the support section and that is configured to attenuate an impact when the vehicle collides with an object.

Abstract: An electric motor bicycle system with an electric motor driven gear adapted to drive a wheel gear coupled to a bicycle hub. The motor driven gear is coupled to the wheel gear with a chain. The chain may be tensioned with one or more tensioners, which allow for a tighter system geometry. The motor may be supported with a bracket adapted to mount to industry standard disc brake mounting interfaces. In some aspects, the motor driven gear is coupled to the disc mounting interface of a wheel hub. In some aspects, the electric motor bicycle system may also have a disc brake system integrated therein.

Abstract: A fuel cell vehicle is disclosed. The fuel cell vehicle includes a front fuel cell mounted in a first space and a rear fuel cell mounted in a second space located at the rear side of the first space on the basis of the direction in which the fuel cell vehicle travels. The rear fuel cell includes a top surface lower than the top surface of the front fuel cell on the basis of the ground.

Abstract: A motor vehicle has a passenger compartment and two longitudinal members provided with respective rear portions arranged longitudinally in the area of the passenger compartment and with respective struts, which project forward relative to the passenger compartment; the motor vehicle further has a powertrain, which is supported by the cross member and/or by the struts, and a cross member with front connection points connected to the longitudinal members so as to be suspended, by means of respective breakable connection members, and with rear connection points connected to the aforesaid rear portions by means of connection devices having weakened areas designed so as to break when a given load threshold is exceeded, in order to completely uncouple the cross member from the longitudinal members.

Abstract: An undercarriage for a working machine having a chassis. The chassis includes a first axle mount and a first axle assembly mounted to the first axle mount. The first axle assembly has a first axle with first and second ends for pivotably mounting first and second wheels. The first axle mount is provided in the form of first and second arms extending from the chassis to define a channel therebetween, and the undercarriage is configured to restrict movement of the first and second arms.

Abstract: A drive module for an electric vehicle having noise, vibration, and harshness counter measures. The drive module includes multiple covers and mass dampeners in order to detune vibration and noise from the cabin of the vehicle.

Abstract: A transmission includes a first shaft with two gears adapted for connecting to a motor and a second shaft with two corresponding gears adapted for connecting to a driveshaft; a shift drum selectively controlling torque transfer between the shafts and defining therein two grooves; a shift rod translatable along a rod axis with a driving member fixedly connected thereto and engaging one groove, at least a portion of the groove causing the driving member and the shift rod to translate along the rod axis upon rotation of the shift drum; an engagement dog disposed on the second shaft for selectively engaging the gears of the second shaft; two biasing members disposed around the shift rod; a fork rod supporting a shift fork slidably connected to the fork rod and the shift rod, the shift fork being engaged in another groove of the shift drum.

Abstract: Front and rear independent suspension mechanisms accommodating an increased range of motion to better absorb shock originating at the wheels of a riding mower to insulate the operator and reduce stress on the mower chassis and other mechanical components. The front suspension can include a front axle with pivot pockets allowing 360 degree rotation of pivots engaged within the pockets, thereby providing a greater range of absorption of shock entering the front axle at varying angles. The rear suspension can include a vertically pivoting transmission platform, providing for controlled vertical motion in the transmission while the transmission is powered by an engine by way of a belt assembly.

Abstract: An assembly includes a vehicle frame having a crossmember defining a passage. The assembly includes a drive unit supported by the crossmember in the passage. The assembly includes a stabilizer fixed to the drive unit, the stabilizer permitting movement of the drive unit in a first direction relative to the passage and restricting movement of the drive unit in a second direction opposite the first direction.

Abstract: A fuel cell vehicle capable of determining, when a fuel cell vehicle collides with a rigid body, whether a stack is damaged by a visual observation at a low cost. A fuel cell vehicle includes: a fragile part configured to be located so as to come into contact with a side surface of the stack frame that is orthogonal to a direction in which cells in the stack are stacked, and be deformed when a preset collision force causing damage to a stack is applied; and a deformation part configured to form a part of the vehicle body, and be deformed and come into contact with the fragile part when a collision force is applied to the vehicle body.

Abstract: An electric vehicle includes: a vehicle main body; and a cooling box provided in the vehicle main body. A passenger compartment in which a passenger gets, and a front accommodation compartment provided more frontward than the passenger compartment are formed in the vehicle main body. The cooling box is disposed in the front accommodation compartment. Thus, the cooling box mounted on the electric vehicle can be easily accessed even when the electric vehicle is parked reversely.

Abstract: A turbocharger for an internal combustion engine is provided. The turbocharger includes at least three connections for respective lines. The at least three connections are arranged on the same side of the turbocharger. The turbocharger is designed in such a manner that the lines can be mounted with a common screw to the at least three connections.

Abstract: A fuel tank structure of an all-terrain vehicle is provided. The all-terrain vehicle includes a vehicle frame unit, a fuel tank arranged on the vehicle frame unit, a seat cushion arranged on the vehicle frame unit, a pair of rear wheels rotatably mounted to a rear section of the vehicle frame unit, and a power unit arranged on the vehicle frame unit. The power unit is connected to an exhaust unit. The vehicle frame unit includes a rear carrier rack and a rear ancillary tube assembly. The fuel tank is arranged rearwardly of the power unit and located below the rear carrier rack. The fuel tank includes a body portion, which is formed with a lower buffering fuel accommodation extension section extending in a direction toward a lower side of the vehicle body, so as to increase the weight of the fuel tank.

Abstract: A vehicle includes a chassis, a suspension system coupled to the chassis, a front axle, a first rear axle, and a second rear axle coupled to the chassis by the suspension system, and a powertrain coupled to the chassis and at least one of the front axle, the first rear axle, and the second rear axle. The powertrain is configured to drive the at least one of the front axle, the first rear axle, and the second rear axle. The chassis, the suspension system, the front axle, the first rear axle, and the second rear axle provide a payload capacity rating of at least 1,750 pounds. The vehicle has an overall width between 60 inches and 80 inches.

Abstract: Provided is a vehicle front portion structure including: a right and left pair of front side members that are disposed on both vehicle width direction sides of a vehicle body front portion and extend along the vehicle front and rear direction; a cross member that is disposed between front end portions of the right and left pair of front side members and interconnects the front end portions in the vehicle width direction; a front-wheel-drive motor that is disposed on the vehicle rear side of the cross member; and a radiator that is disposed on the vehicle rear side of the cross member and on the vehicle front side of the motor and extends along the vehicle width direction and the vehicle up and down direction.

Abstract: An engine mount which connects an engine to a vehicle body is provided. The engine mount includes a housing which defines a body of the engine mount and a main rubber body that is installed within the housing and defines a space portion that accommodates a fluid that flows through a nozzle plate. A core is inserted into and fixed to the main rubber body and an a fixing bolt is coupled to the core. A lower support bracket is coupled to the vehicle body and the fixing bolt is inserted therein. A damper that attenuates vibration is disposed at a lower side of the core or at first and second ends of the lower support bracket of the of the engine mount.

Abstract: A vehicle includes a plurality of ground-engaging members, a frame assembly supported by the plurality of ground-engaging members, and a seating area supported by the frame assembly and configured to support at least an operator and a passenger. The vehicle also includes a cargo area positioned rearward of the seating area and including a floor configured to support cargo thereon. Additionally, the vehicle includes a powertrain assembly including an engine and a transmission operably coupled to at least one of the plurality of ground-engaging members. A heat exchanger is fluidly coupled to the engine. The heat exchanger is angled relative to the floor of the cargo area and positioned along a lateral side of the cargo area.

Abstract: A vehicle body lower structure includes a battery pack, side sills, and a battery side frame that extends in a forward/rearward direction between the side sills and the battery pack and that is configured to support the battery pack, the battery side frame has a first attachment member fixed to the side sills, and a second attachment member that is coupled to the battery pack and that constitutes a closed cross section between the first attachment member and the battery pack, and the first attachment member has an outer fixing point fixed to the side sills and an inner fixing point fixed to a wall that constitutes a closed cross section of the second attachment member.

Abstract: A transmission-side mount bracket includes connection portions which connect a front-side leg portion and a rear-side leg portion of a leg member, a middle attachment (fixation) portion which is provided at the connection portions at a position located between the front-side leg portion and the rear-side leg portion and fixed to the powertrain, and a rigidity-reduction portion (an opening portion) which has the rigidity against a load applied in the vehicle width direction which is lower than that of the front-side leg portion and the rear-side leg portion and is provided at a position located in the vicinity of the middle attachment (fixation) portion.

Abstract: A driving device unit includes an electric motor configured to drive a vehicle, a drive device accommodating the electric motor, and an electric motor control device configured to control the electric motor. The drive device and the electric motor control device are arranged side by side in a horizontal direction, and an electrical connection portion electrically connecting the drive device and the electric motor control device is disposed at a joining portion between the drive device and the electric motor control device, and the drive device and the electric motor control device include a first fixing portion that directly fixes the drive device and the electric motor control device in the vicinity of the electrical connection portion, and a second fixing portion that fixes the drive device and the electric motor control device via a stiffener at a position away from the electrical connection portion.

Abstract: At least one of a pair of right and left motor unit support systems for mounting and supporting a motor unit (71) on a cross member (80) is fastened and fixed to an upper part of the motor unit (71) by a first shaft-like fastening member (a first bolt (101)). An axial direction of the first shaft-like fastening member (the first bolt (101)) is the same as a vehicle longitudinal direction in a state in which the at least one of the motor unit support systems is fastened and fixed to the upper part of the motor unit (72).

Abstract: A brake booster is mounted on a forward bulkhead of a motor vehicle having two elements, a first element being securely connected to the brake booster whilst a second element is securely connected to the bulkhead. The two elements are restrained against vertical movement relative to one another by at least one connector which is deformed or fails upon a movement of the brake booster upward relative to the bulkhead. An actuator is movably mounted to the bulkhead below the brake booster and rearward of a gearbox housing such that rearward movement of the gearbox housing during a frontal collision presses against the actuator and moves the actuator upward to apply pressure to the brake booster, the pressure causing the brake booster to move upward relative to the bulkhead.

Abstract: A tension rod supporting part (14) is provided at a sub-frame front structure (10) of a front part of a front sub-frame (5); the side member (6) is disposed upward in one side and extended rearward from the tension rod supporting part (14); a rack arrangement step (A) opened downward for arranging a steering rack (55) is formed behind the tension rod supporting portion (14) and under the side member (6); and a stabilizer support part (62) is provided in the rack arrangement step (A).

Abstract: An exemplary brake booster device includes a brake booster mounted on a vehicle component, and an actuator lever that, in response to a force applied to the actuator by a gearbox housing, pivots to move the brake booster upward. An exemplary method includes pivoting an actuator lever about a pivot axis under a force effect in an X direction resulting from a gearbox housing, and, during the pivoting, using the actuator lever apply a force in a Z direction to a module mounted on a bulkhead to alter a position of the module mounted on the bulkhead.

Abstract: This disclosure details mounting systems and associated methods for mounting a battery pack to an electrified vehicle. An exemplary electrified vehicle may include a frame, a battery pack, and a mounting system for mounting the battery pack to the frame. The mounting system may include one or more isolator assemblies for substantially isolating the battery pack from vehicle loads that may be imparted onto the frame. Each isolator assembly may include a beam and multiple bushings mounted within the beam and connected to either the frame or the battery pack.

Abstract: An engine mounting structure includes an engine mount fixed to a frame of a vehicle body and an engine bracket fixed to an engine. The engine mount includes a mount fixture on which the engine bracket is assembled. When mounting the engine, the mount fixture and the engine bracket engage with each other at a first engagement portion close to the engine and a second engagement portion close to the frame. In the first mounting portion, the mount fixture urges the engine bracket toward the engine for engagement, and in the second engagement portion, the mount fixture urges the engine bracket toward the frame for engagement.

Abstract: Safety blocks can provide two points of contact for a torque tube of a sprint car if it breaks free and begins to move. During impact, safety blocks absorb and transfer energy from the torque tube to the sprint car frame located on the outer face of the safety blocks. Each face of the safety blocks can be manufactured to accommodate any surface irregularity within the sprint car frame. The safety blocks may be inserted into the sprint car from the rear of the sprint car towards the front of the sprint car.

Abstract: A vehicle has a transmission and a brake booster disposed rearward of the transmission. A generally C-shaped lever is pivotingly mounted to the transmission and immediately adjacent to the brake booster such that a first arm of the lever is disposed forward of the brake and a second arm of the lever is disposed beneath the brake booster. The lever is configured such that rearward movement of the transmission due to a vehicle collision urges the first arm into contact with the brake booster and thereby rotates the lever such that the second arm urges the brake booster upwardly relative to the transmission. The upward movement of the brake booster thereby prevents the brake booster from being trapped between the transmission and structure of the vehicle such that it may cause undesirable intrusion of a brake pedal into the vehicle passenger compartment.

Abstract: A work vehicle includes a vehicle body, a travel device, a driving source, and a cooling device. The travel device is provided below the vehicle body. The driving source is disposed in a front part of the vehicle body. The driving source generates driving power for the travel device. The cooling device is disposed on one side in the vehicle width direction of the vehicle body and rearward of the driving source.

Abstract: An exemplary brake booster device includes, among other things, a brake booster mounted on a vehicle component, and an actuator that, in response to a force applied to the actuator by a gearbox housing, pivots to move the brake booster upward. The actuator includes at least two pivot elements spaced from each other, and a displacement mounted in a jointed manner between the at least two pivot elements.

Abstract: A drive package includes a remote located CVT and a motor where the CVT is positioned rearward (or forward) of the motor. An auxiliary drive mechanism couples a drive shaft of the CVT to a crankshaft of the motor. The auxiliary drive mechanism is a belt or chain. The drive shaft is substantially parallel to, and longitudinally offset from, the crankshaft. Thus, the width of the drive package is reduced as compared to ATVs having a CVT located adjacent the motor. A method of making an ATV with the drive package is provided.

Abstract: A work vehicle includes a blower pipe extending between an inner space of a front hood and a rear portion of a vehicle body for sucking cooling air from the inner space toward an engine section. The blower pipe has an air inlet that is opened toward an inner side in a vehicle body transverse direction in the inner space.

Abstract: Provided is an engine mounting structure for a cab-over type vehicle wherein an engine 10 is mounted on a left and right pair of chassis frame members 3L, 3R extending in the front-rear direction of the vehicle body, and wherein a cab 2 is disposed above the engine 10. The engine 10 has exhaust system connected to either the left or right side surface of the engine 10, and the engine 10 is mounted on the chassis frame members 3L, 3R at a predetermined angle so that the either the left or right side surface faces upward.

Abstract: A battery pack includes a battery comprising at least one battery cell, a first switch electrically connected between the battery and an external terminal of the battery pack, and configured to be switched in response to a first control signal, a capacitor configured to stabilize a switching state of the first switch, a second switch electrically connected in parallel to the capacitor, and configured to be switched in response to a second control signal, and a battery protection unit configured to output the first and second signals.

Abstract: The provision of impact structures is difficult in the case of small vehicles, due to the shortage of working depth. We propose to use the wheel and tire as part of the deformable structures, which reduces the overall weight of the vehicle and requires little or no additional space in which to provide the impact structures. There is still a need to control the movement of the wheel under impact, but we have found that this can be done by appropriate design of the suspension components so that they react in a defined manner to an impact and guide the wheel in the correct manner.

Abstract: A method for retrofitting a high drive track-type tractor with a rear entry electric drive motor module. The method includes inserting the rear entry electric drive motor module into a frame housing. The rear entry electric drive motor module includes an electric drive planetary gear assembly, and an electric motor. The method further includes attaching a reaction member to the rear entry electric drive motor module.

Abstract: The present invention relates to a wire harness arrangement structure of a vehicle, comprising plural component control parts to control plural electric components for governing a drive of the vehicle, a main control part to generate a command signal for providing a command to the plural component control parts, and plural main wire harnesses to transmit the command signal. The plural electric components include at least a brake, an engine, a transmission, and a steering, and the plural main wire harnesses constitute a signal transmission loop which extends from the main control part and returns to the main control part by way of the plural component control parts.

Abstract: Provided is a work vehicle in which a seat support frame that supports a driver seat is equipped on a vehicle body frame, the vehicle body frame includes: a front portion vehicle frame at which a floor surface of a driving portion is provided; and a rear portion vehicle frame disposed at a position higher than the floor surface of the driving portion and rearward of the front portion vehicle frame. An engine is equipped below the rear portion vehicle frame, a battery that supplies power to an electric motor is equipped above the front portion vehicle frame and below the seat support frame, and a frame portion of the seat support frame that exists above the battery at a position opposing the battery is configured to be detachable from another frame portion that is fixed to the vehicle body frame.

Abstract: A variable compression ratio engine (1) is provided with a multi-link mechanism (101) between a piston (102) and a crankshaft (103). The multi-link mechanism (101) includes an upper link (104), a lower link (105) and a control link (106). An anti-vibration device (6) for vehicles is attached between the upper part of the engine (1) and a vehicle body to which the engine (1) is mounted. The anti-vibration device (6) includes a rod body (63) having a first elastic connecting part (61) at one end and a second elastic connecting part (62) at another end. The first elastic connecting part (61) is connected to the engine (1). The second elastic connecting part (62) is connected to the vehicle body.

Abstract: A work machine includes a machine body, an engine, a rotary electrical device, and an electric power controller. The engine is provided on the machine body to move the machine body. The rotary electrical device is provided on the machine body to move the machine body. The electric power controller is disposed above the rotary electrical device in a height direction along a height of the work machine to control the rotary electrical device.

Abstract: A tractor includes a vehicle body, an engine, a cooling device, a fan, and a first exterior member. The engine is disposed on the front side of the vehicle body. The cooling device is disposed behind the engine. The fan is arranged to produce cooling air for the cooling device. The first exterior member is disposed on the front side of the vehicle body and covers the engine, the cooling device, and the fan. A first discharge port is arranged to discharge the cooling air and is provided in a first side surface of the first exterior member. The front side surface is positioned on a first side in the vehicle left-right direction. The front surface of the first exterior member includes no opening.

Abstract: Embodiments of a tank cover for covering a diesel exhaust fluid tank of a vehicle. The tank cover can be added directly over a diesel exhaust fluid tank or can be used to replace a factory/OEM or other replacement cover. In some embodiments, the tank cover can be easily installed onto a vehicle through existing components, and no additional drilling may need to be performed.

Abstract: A utility vehicle includes: an engine; an engine room in which the engine is contained and that has a front opening in a front face thereof and a rear opening in a rear face thereof; and an air intake duct that has an air inlet in a front part of a vehicle body and extends in a front-rear direction, the air intake duct guiding air from the air inlet to the front opening, in which the engine room includes a bottom plate and a left partition wall and a right partition wall that are provided on respective sides, in a vehicle width direction, of the engine and cover at least a crankcase part of the engine in side view.

Abstract: The invention relates to a vehicle powertrain that includes an internal combustion engine, a transmission driving at least two wheels, and an intermediate unit connecting the engine and a transmission housing enclosing the transmission. The intermediate unit is configured to allow relative rotation between the engine and the transmission housing about an axis (X) that is colinear with an engine output shaft and a transmission input shaft. The arrangement prevents engine vibrations from being transmitted to the transmission, and prevents torque shock from the vehicle wheels from being transmitted to the engine.

Abstract: A body structure includes: a center frame extending in the longitudinal direction of the vehicle at the center in the vehicle width direction; and at least one support member extending toward the outer side in the vehicle width direction from the center frame. The support member supports at least one of a steering system, a pedal system, a seat, and a footrest member.

Abstract: A working vehicle includes: an engine mounted on a traveling machine body; a hydraulic continuously variable transmission configured to shift driving force from the engine; a transmission case incorporating the hydraulic continuously variable transmission; and rear traveling units disposed on both left and right sides of the transmission case via rear axle cases. The transmission case is divided into three sections of a front case, an intermediate case, and a rear case. The left and right rear axle cases are attached to both left and right sides of the rear case. The intermediate case, coupling the front case to the rear case, is coupled to left and right vehicle body frames forming the traveling machine body.

Abstract: A vehicle front structure includes a connecting member (10) formed of a belt-shaped metal plate, the connecting member (10) has a plate-shaped bottom section (11), a first folded section (12) formed by folding a circumferential edge of the bottom section (11) and a circumferential wall section (13) that is formed in a continuous annular shape and that continues to the bottom section (11) via a folded section (12), and the bottom section (11) of the connecting member is formed in a V shape upward or downward in a longitudinal direction.