Abstract: A vehicle front portion structure includes a motor, a stabilizer having an extending portion disposed at a vehicle front side of the motor and that extends further in a vehicle width direction than a length of the motor, and having an arm portion that extends toward a vehicle rear side from each end of the extending portion, a plurality of motor fixing portions, a part of the motor fixing portions being disposed at respective outer sides in the vehicle width direction relative to the motor and at a position between the motor and the extending portion, and a plurality of stabilizer support portions that support respective end parts of the extending portion, the stabilizer support portions being disposed further toward a front side than the motor fixing portions, and at least a part of the stabilizer support portions being aligned with the motor fixing portions in the vehicle front-rear direction.

Abstract: A rear subframe structure is provided with a rear subframe configured such that a front cross member, a rear cross member, a pair of left and right upper side members, and a pair of left and right lower side members are connected; and a vehicle-body mounting portion formed on each of both ends of the front cross member, and on each of rear ends of the upper side members. The rear subframe further includes a pillar portion formed between the upper side member and the lower side member; a first-arm support portion formed on the pillar portion to support a first arm; a second-arm support portion formed on the pillar portion to support a second arm; and an arm support bracket to support the second-arm support portion from a rear side.

Abstract: A torque rod includes a small ring section to be connected to an engine, a large ring section to be connected to a vehicle body, and a rod section providing a connection between the small ring section and the large ring section. The large ring section includes an outer member connected to the rod section, an inner member to be connected to the vehicle body, and a large ring elastic member providing a connection between the outer member and the inner member. Based on a transmission characteristic map, which is prepared by mapping transmission characteristics of the torque rod that are determined by a rod length, a small ring torsion spring, a large ring spring and a large ring spring ratio as parameters, such a combination of parameters that the transmission characteristics are less than 100 N/mm is selected.

Abstract: A vehicle includes a chassis, and a drivetrain supported by the chassis. The drivetrain includes a prime mover and a transmission mechanically linked to the prime mover. At least one dynamically adjustable engine mount connects the drivetrain to the chassis. The at least one dynamically adjustable engine mount includes a selectively adjustable parameter. One or more sensors is associated with the vehicle. The one or more sensors is operable to detect one or more vehicle parameters. A control system is operatively connected to the at least one dynamically adjustable engine mount and the one or more sensors. The control system is operable to alter the selectively adjustable parameter of the at least one dynamically adjustable mount to substantially isolate the chassis from lateral shudder of the drivetrain in response to the one or more vehicle parameters.

Abstract: [Problem to be Solved] To provide an antivibration device that can realize low dynamic spring characteristics in a high vibration region while securing a damping force in a low vibration region. [Solution] In the case where a load input in the axial direction of a coupling member is a predetermined value or smaller, the dynamic spring constant of a first bush 10 is set larger than that of a second bush 20, and the loss factor of the second bush 20 is set larger than that of the first bush 10. On the other hand, in the case where the load input in the axial direction of the coupling member 30 exceeds the predetermined value, the dynamic spring constant of the first bush 10 is set smaller than that of the second bush 20.

Abstract: An assembly for supporting a first vehicle component manages loading of the first vehicle component under applied forces by enabling a slip joint connection between the first vehicle component and a supportive mounting bracket. More specifically, the assembly includes a mounting bracket that has a slot. A plate is fit within the slot. A stud extends from the plate. The stud is configured to extend through an opening in the first vehicle component when the first vehicle component is mounted to the mounting bracket to capture the mounting bracket between the plate and the first vehicle component at the stud. The mounting bracket and the plate are cooperatively configured as a slip joint. A method of assembly is also provided.

Abstract: A trailing arm bush may include a cylindrical outer pipe, an inner pipe inserted to a central portion of the outer pipe at an interval, a first bush rubber unit, a second bush rubber unit and a third bush rubber unit that connect between an inner peripheral surface of the outer pipe and an outer peripheral surface of the inner pipe, respectively, a hollow void part formed between the inner peripheral surface of the outer pipe and the outer peripheral surface of the inner pipe, and a stopper attached to the inner peripheral surface of the outer pipe and disposed among the first bush rubber unit, the second bush rubber unit and the third bush rubber unit.

Abstract: A sub-frame assembly for attachment to a unibody of a vehicle and for supporting at least one vehicular component is provided. The sub-frame assembly includes a pair of longitudinal members which are spaced from one another in a lateral direction and extend in a longitudinal direction between first and second ends. The longitudinal members at least partially converge towards one another from the first ends to the second ends such that the second ends are closer to one another than the first ends. A cross-member is coupled with and extends laterally between the longitudinal members. Each of the longitudinal members and the cross-member has a single and no more than one body mount for connection with the unibody of the vehicle such that the sub-frame assembly has exactly three body mounts in total.

Abstract: An electric motorcycle of the present invention comprises: a battery for storing electric power; an inverter for generating an AC current by the electric power supplied from the battery to the inverter; a motor for generating driving power by the AC current generated by the inverter and supplied to the motor; a wiring member for electrically connecting the inverter to the motor and flowing a current to drive the motor; a battery case for accommodating the battery; an inverter case for accommodating the inverter; and a motor unit case for accommodating the motor, wherein the wiring member is placed in a space defined by the battery case, the inverter case and the motor unit case.

Abstract: In an electric three-wheeled vehicle, a centrifugal clutch transmits rotary driving power to a counter shaft when the revolution speed of a motor exceeds a prescribed value. The clutch is coaxially located at one end of a motor output shaft. A counter shaft is located inside the outside diameter of the motor in a side view of the vehicle. The motor output shaft, counter shaft, and axles are arranged from a vehicle forward side in the order of mention. The axis center of the counter shaft is located below a line connecting the axis center of the motor output shaft and the axis center of the axle in a side view of the vehicle.

Abstract: A motor vehicle has an internal combustion engine mounted in a central tunnel of the vehicle floor pan. The internal combustion engine comprises an engine block assembly having a lower end closed by an oil pan and an upper end extending at an angle ? from a rear of the engine block assembly to a front thereof. An engine block closes the upper end and defines a crankcase that is configured to house a crankshaft for rotation therein. A cylinder housing assembly is reclined from vertical, towards the rear of the engine block, about an axis of the crankshaft by an angle ?. At least a portion of the cylinder housing assembly and the crankcase are disposed in the central tunnel of the vehicle floor pan.

Abstract: A structure of an engine mount is provided for a vehicle in which an engine is disposed in the front of the vehicle, a front wheel is driven, and the engine is integrally coupled with a transmission to be seated horizontally on a vehicle body in a transverse mounting direction. The structure may include a driveshaft coupled to receive the driving force of the engine through the transmission and penetrate a center bearing through a bearing bracket fixed to the engine, a subframe as a plate shape coupled to the vehicle body in a rear lower part of the engine and coupled to a lower part of the transmission through a main roll rod mounted on the front, and a sub-roll rod having one end connected to the subframe and the other end connected to the bearing bracket.

Abstract: In one aspect, the vehicle is a relatively small-sized utility vehicle and includes front and rear wheels on the right and left sides of a body of the vehicle. A seat is located substantially midway between the front and rear wheels. At least part of a power unit is disposed in the space under the seat. The power unit includes an engine having a crank shaft and a transmission to which power is input from the output portion of the engine through a first power train. The crank shaft includes a rotational mass, and at least a portion of the transmission is located in the space below a swept area of the rotational mass.

Abstract: A structure for mounting an electric motor in a vehicle, comprises: a mounting frame detachably fixed to a body component of the vehicle by a bolt; an upward-projecting bracket, which is upwardly projected from the mounting frame, being attached to the body component of the vehicle; a bolt hole, in which the bolt is inserted, being formed on the upward-projecting bracket; and a downward-projecting bracket, which is downwardly projected from the mounting frame, being connected to the electric motor. Both the mounting frame and the downward-projecting bracket are set apart from an axis of the bolt hole.

Abstract: An engine bracket including: an attachment portion provided in a fixing location adapted to be fixed to at least one of the vehicle body and power unit; a bolt hole being formed in the attachment portion so that the attachment portion is fixed to the vehicle body or power unit by a fixing bolt inserted into the bolt hole; and at lease one breaking groove formed at an area located spaced away from the bolt hole so as to extend away from the bolt hole and toward an outer peripheral edge of the attachment portion on at least one of opposite surfaces of the attachment portion in a direction in which the fixing bolt is inserted.

Abstract: A modular, wheeled vehicle suitable for military use, includes a driver module having a width for seating one person and having length for seating a second (and optional third) person therebehind, and an engine module disposed behind the driver module containing an engine for powering the modular vehicle. The engine module has a rear surface adapted to receive a storage module. The driver module and the engine module form a central element having a pair of sides, a bottom, and a top. The central element is adapted to receive the modules on both of the central element sides. The central element has air inlet for personnel and for the engine disposed atop the central element. The bottom of the central element and troop side pods generally are V-shaped with slanted, upward extending sides.

Abstract: An upper CRFM attachment modality which provides assembly simplification, structural strength, design efficiency, and reduced vehicle weight. The tie bar, particularly the inner tie bar component thereof, is integrally provided with a pair of upper CFRM brackets. A pair of elastomeric frustoconical studs are attached to the top end of the upper CRFM, wherein the frustoconical studs self-aligningly interface, respectively, with a stud hole of each of the upper CRFM brackets as a powertrain cradle carrying the CRFM is lifted toward the engine compartment.

Abstract: A power unit supporting structure for minimizing rotational vibration about the center of gravity of a power unit, and secondary vibration in the direction of a cylinder axis line of the power unit. The structure includes a link mechanism having a first frame side link swingably connected to a first pivot on the side of a rear frame, and first power unit side links swingably connected to a third pivot on a side of the power unit. The first frame side link and the first power unit side links are swingably connected by a second pivot. A first line segment connecting the first pivot and the second pivot is disposed approximately perpendicular to a cylinder axis line. A second line segment connecting the second pivot and the third pivot is approximately parallel to a third line segment connecting the third pivot and the center of gravity of the power unit.

Abstract: This body structure is suitable for motor vehicles, especially for passenger cars and comprises a passenger compartment structure and at least one supporting structure adjoining thereon, for example, for accommodating a driving unit and wheel suspension elements. The supporting structure is connected to the passenger compartment structure through holding elements. To optimize the supporting structure, having a region connecting with the passenger compartment structure and a rear end region, the supporting structure is formed as an enveloping device of a high-strength, especially a fiberglass reinforced plastic, which is reinforced with a supporting device and surrounds the driving unit at least regionally, the enveloping device having several openings, each of which forms an access to the driving unit, and being provided with bearing mountings for the driving unit.

Abstract: A drive train system for an automobile includes a power unit, a differential and a rigid frame coupling the power unit and the differential. The drive train system is oriented so that it extends in the lengthwise direction of the automobile, and has an engine mounted near the front end of the automobile body and providing the automobile with rear wheel drive. A structure used for mounting the drive train system includes power unit mounts for supporting primarily the power unit and a differential mount for supporting primarily the differential. The power unit mounts are disposed at a position or positions either in front of or behind the center of gravity of the whole drive train system in the lengthwise direction of the automobile, and the differential mount is disposed, depending on the position of the power unit mounts, at a position either rearward of or forward of axle shafts of the differential in the lengthwise direction of the automobile.

Abstract: A frame structure of a working vehicle for attaching working implements includes front axle frames, side frames for attaching a front loader, and rear reinforcing members. The front axle frames extend forwardly and substantially parallel to each other on opposite sides of the working vehicle. The front axle frames are removably attached to an engine of the working vehicle. The side frames for attaching a front loader project laterally outwardly of the working vehicle for securing the front loader to distal ends thereof. The side frames are removably secured to the front axle frames through mounting plates, respectively. Each of the rear reinforcing members is supported at a forward end thereof by a bracket of one of the side frames, and at a rear end by a vehicle body. Each rear reinforcing member has a connector for supporting a safety frame.

Abstract: The front frame is resiliently connected to a central frame of the motor vehicle supporting structure and is resiliently connected to each front wheel by means of a resilient suspension; this frame substantially comprises a plate engageable against the ends of the attachment beams of the central frame and at least two pairs of first arms substantially orthogonal to the plate itself; the said plate includes a substantially flat wall in which are formed perforations and from which project a plurality of ribs to form a flat reticular structural element, and connection of the said plate to the central frame is achieved by means of sleeves made of resilient material and disposed in corresponding nodes of the said reticular structural element.

Abstract: The rear frame is resiliently connected to a central frame of the support structure and is adapted to support the engine and some of the members of the transmission and is resiliently connected to each rear wheel of the motor vehicle; this frame substantially comprises a pair of first ring-shape structural elements each of which is adapted to support a resilient suspension and comprises a plurality of limbs connected together; the frame further includes a plurality of cross members connecting together the ring-shape structural elements to form with them a single lattice structure, as well as two pairs of longitudinal side members each of which has one end fixed to one of the ring-shape structural elements and the other end adapted to be connected resiliently to the central frame.

Abstract: The tractor unit of an articulated, freight-carrying road vehicle has two rear axles, one of which is driven by an engine mounted rearwardly of the driven axle. The axis of the fifth wheel coupling to the trailer is situated forwardly of the driven axle so that the center of gravity of the tractor unit is in the vicinity of or is to the rear of the fifth wheel axis. The engine is connected at its rear end with a chassis of the tractor unit and is supported by the rear axles so that the engine moves relative to the chassis when the rear axles move relative to the chassis.

Abstract: A front wheel drive vehicle in which the suspension assemblies are mounted on the power unit to form a combined assembly including the steering assembly. The combined assembly is resiliently mounted by flexible mountings in the body so that vibrational forces from the power unit and the front wheels are attenuated in the combined assembly and the flexible mountings.

Abstract: A bearing body for motorcycles with rear drive wheel borne in cantilever fashion by an oscillating arm fulcrummed to said body and bearing also the engine/transmission assembly with related exhaust pipe silencer, comprising in its lower part anterior to the fulcrum of said oscillating arm a cavity for free partial housing of said silencer.

Abstract: A tracked vehicle designed to allow easy dismounting, as for servicing, of a power train assembly comprising a torque converter, a transmission, and a steering mechanism detachably joined together. Having its input shaft coupled to the output shaft of an engine via a joint, the torque converter is supported on a pair of main vehicle frame members via a removable support member extending therebetween. The steering mechanism is mounted to the main frame members both detachably and for pivotal motion about the aligned axis of its pair of output shafts separably connected to respective retractable input shafts of final drives secured externally to the main frame members. Thus the power train assembly is either wholly dismountable from the vehicle frame or pivotable relative to the vehicle frame about the aligned output shafts of the steering mechanism for dismounting only the torque converter and the transmission.

Abstract: Articulated bus having a two-axle leading car and a single-axle trailing car. The leading car has a driving axle which is driven alternatively by an internal-combustion engine arranged in the trailing car and an electric motor arranged in the leading car.

Abstract: A straddle type material handling industrial truck providing an approximately constant force on the traction and braking wheel through pivotal mounting of the drive unit augmented by spring loading. The spring loading is accomplished by a spring mechanism which includes an upper spring bracket having a downwardly extending stop portion and mounted on the frame, a lower spring bracket having an upwardly extending stop portion and mounted on the drive unit, and a compression spring extending between the spring brackets, the stop portions being located within the compression springs and spaced apart a predetermined amount to limit the upward pivotal movement of the drive unit.

Abstract: A motor vehicle is disclosed having a main frame with rear wheels in substantially fixed alignment supporting the main frame, a steerable frame provided at the forward end of the main frame including front wheels in fixed alignment with the steerable frame and a motor mounted on the steerable frame. The front wheels are separated from each other a distance smaller than the separation of the rear wheels. A pivot connects the steerable frame to the main frame, the lower end of the axis of the pivot being in front of the upper end of the axis such that any angular displacement of the steerable frame with respect to the main frame causes a lateral displacement of the ground-engaging portion of the front wheels. Exhaust gases are directed from the motor to the rear of the main frame through a pivotal connection between a manifold and tail pipe, the pivotal connection being in axial alignment with the steering axis of the steerable frame.

Abstract: A sub-frame supporting device in which a sub-frame adapted to support an engine, wheels and the like is supported from the body of a vehicle through an elastic support member. The supporting device comprises a pair of upper and lower holding plates oppositely disposed, a spacer pipe connecting the holding plates, a fastener for fastening the holding plates to a vehicle body and an elastic support member. A flange of the sub-frame is held between the elastic support member and a damper rib, and gaps are formed adjacent the upper and lower surfaces of the elastic support member. The rigidity of the elastic support member is set so as to be decreased with respect to vertical shearing force and increased with respect to lateral compressive force.

Abstract: In a front-wheel-drive vehicle having a powertrain with a transversely positioned engine and transmission and independent front-wheel suspensions each with a control arm, there is provided a cradle to which the drive-wheel suspension control arms are swingably mounted. A plurality of cushion mounts support the cradle at high impedance points on the vehicle body and provide a soft substantially linear spring rate at small vibratory amplitudes of the cradle in both a fore and aft direction and a vertical direction relative to the vehicle and a stiff substantially linear spring rate at all vibratory amplitudes of the cradle in a lateral direction relative to the vehicle. The powertrain is directly supported on the cradle by a plurality of cushion mounts which have soft substantially linear spring rates in the same directions as the cradle mounts.