Abstract: A first fastening portion (100) for fastening a cylinder block (20) and a bracket (50) to each other and a second fastening portion (200) for fastening a crank case (30) and the bracket (50) to each other are so provided as to have interposed therebetween a fastening bolt (40) for fastening the cylinder block (20) and the crank case (30) to each other.

Abstract: A front cross frame portion (12) is connected to a front cross member (27) provided at a connecting portion (26) between a front floor (6) and a vertical wall portion (7). A rear cross frame portion (13) is fixed to a rear cross member (28) extending along a lower surface side of a rear floor (8) in a vehicle width direction above a differential (16). Thereby, the longitudinal length of a subframe (9) is shortened, the stiffness of the subframe (9) is increased, and the space behind the rear cross frame portion (13) is increased.

Abstract: An anti-vibration assembly is disclosed including a rigid bracket fixed to a vehicle powertrain, a vehicle body and an anti-vibration mount including: a first tubular mounting member, in which the bracket is received; a second mounting member fixed to vehicle body; an elastomer body connecting the first mounting member to the second mounting member; and a rigid strap including two legs and a top. The second mounting member is fitted in the two legs of the strap in the first direction upwards and is pressed by said two legs directly on the vehicle body in said first direction. The strap further includes a bridge portion joining the two legs under the bracket.

Abstract: A power train substantially contains an internal combustion engine and an adjacent gearbox unit is connected to the vehicle body via a power-plant mounting. The gearbox unit is held by way of a rear end on a carrying bracket via fastening devices and is mounted in a supported manner on a crossmember by elastic bearings. The carrying bracket contains a tension stop and a guide device which contains a guide journal which extends vertically into passage openings of the crossmember and has an end-side horizontally oriented stop plate.

Abstract: The fuel cell stack is placed in an attitude for which the stacking direction of the plurality of cells are tilted in relation to the front-back direction of the vehicle, and the second end plate is positioned at forward and upper position relative to the first end plate in the vehicle. The radiator is provided at a forward position relative to the second end plate, and along the second end plate. The first compressor is fixed at a total of three or more points to both the first and second end plates below the fuel cell stack.

Abstract: A frame assembly for a vehicle includes a subframe, a collar assembly with a collar member and a mounting pin, and a main frame with a saddle. The main frame has a contact side that faces toward the collar assembly and the saddle is located on the contact side. The subframe is connected to the main frame with a bolt that extends from the subframe and into a bore in the mounting pin. The mounting pin is in contact with the saddle.

Abstract: In an arrangement structure of a canister disposed near a cylinder of an internal combustion engine of a motorcycle, the motorcycle including a left and right pair of frames, extending rearwardly from a head pipe, for suspending the internal combustion engine laterally, to enable protection of the canister without involving an increase in the number of parts of a protective member. The canister is disposed between the frames and the internal combustion engine so as to overlap at least partly with the pair of frames in a side view.

Abstract: Said device for mounting an electric propulsion assembly into the engine compartment of an electric vehicle includes a mounting member (4, 5) having a means for attaching onto the vehicle chassis and attachment means for an electrical machine (3), an electrical power unit (2), and a charging unit (1).

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: The invention relates to a device for locating a subframe to a vehicle body having a control hole. The device comprises a pin attached to the subframe and extending toward the vehicle body when the subframe is positioned for mounting to the vehicle body. The pin is adapted to engage the control hole to precisely align the subframe and the vehicle body. The invention also relates to a method for locating a subframe to a vehicle body having a control hole. The method comprises providing a pin on the subframe that extends toward the vehicle body when the subframe is positioned for mounting to the vehicle body, and engaging the pin with the control hole to precisely align the subframe and the vehicle body.

Abstract: A roll restrictor system for an automotive powertrain includes a first mounting pad located upon a powertrain component and a mounting bracket having an integral bushing post, with the mounting bracket being attached to the first mounting pad. A control link has a first bushing engaged with the integral bushing post portion of the mounting bracket, and a second bushing engaged with a vehicular structural member.

Abstract: An engine mount system for a lawn mower having a front, rear, and two sides. The engine mount system includes a mounting plate, an engine, first and second elastic members, and first and second brackets. The engine is mounted to the mounting plate and applies a torque force to the mounting plate during lawn mower operation. The first bracket is provided on the mounting plate and includes a first surface. The first surface is adjacent the first elastic member and partially faces the front, thereby placing the first elastic member into compression when the engine applies the torque force to the mounting plate. The second bracket is provided on the mounting plate and includes a second surface. The second surface is adjacent the second elastic member and partially faces the rear, thereby placing the second elastic member into compression at the same time as the first elastic member.

Abstract: A motor supporting structure including: a vehicle body member; side frames which extend in a vehicle forward and backward direction below the vehicle body member; cross frames which extend in a vehicle left and right direction below the vehicle body member and are connected to the front end sides and rear end sides of the side frames; frame supporting members which are fixed to cross portions and elastically support the side frames and cross frames by way of elastic bodies, wherein the cross portions are defined as portions where the side frames and the cross frames meet with each other when seen from above the vehicle body; a motor which is disposed in an area surrounded by the side frames and cross frames when seen from above the vehicle body; a motor supporting member for elastically supporting the front side of the motor by fixing the front side of the motor to both side frames and the front cross frame by way of an elastic body; a side frame side connecting member for connecting the side frame with the m

Abstract: The invention relates to an engine mount for mounting an engine on a frame of an agricultural or industrial utility vehicle. The frame has two spaced apart frame elements. Further components of the utility vehicle, such as a gearbox and/or a vehicle axle, can be attached to the frame elements. An outer portion of an engine housing forms a mounting structure through which the engine is mounted on the frame elements, so that no external forces are applied to the engine or to the engine housing. The engine is mounted on the two frame elements using only the mounting structure.

Abstract: A track driven vehicle comprises a structural member underneath the vehicle. The structural member includes a plurality of structural member apertures for receiving fasteners inserted therethrough. The vehicle also includes a first track carrier and a first mounting strut attached to the first track carrier. The first mounting strut, which attaches the first track carrier to the structural member, includes a plurality of mounting strut apertures which, when aligned with the structural member apertures, receive the fasteners inserted therethrough. One of the first mounting strut and the structural member includes a fixedly attached dowel pin, and the other of the first mounting strut and the structural member includes a pin receiving aperture. When attaching the first track carrier to the structural member using the first mounting strut, the dowel pin extends into the pin receiving aperture to prevent cross-shearing between the structural member and the first mounting strut.

Abstract: A vibration damping apparatus for a saddle riding type vehicle that easily secures stiffness of a vehicle body frame, simplifies structure, and improves a degree of freedom in layout. The vibration damping apparatus includes at least a pair of mutually facing surfaces disposed on the vehicle body frame, the surfaces not being relatively displaceable while the vehicle is stationary, and being relatively displaceable while the vehicle is running. A damping member is fixed to each of the surfaces and is disposed therebetween. The damping member is not subject to load while the vehicle is stationary. One of the surfaces is disposed on a side of a first main frame of a pair of left and right main frames and the other of the surfaces is disposed on a side of a second main frame.

Abstract: A vibration isolation assembly is disclosed. The vibration isolation assembly comprises a first body member, a second body member, a first isolation member, a second isolation member, and a least one fastener. The first and second body members are configured to matingly engage one another and the first and second isolation members are partially retained by portions of the first and second body members, respectively. The fastener serves to securing the first and second body members together.

Abstract: A support and drive arrangement for an electrically driven vehicle or a hybrid-electrically driven vehicle. The support and drive arrangement includes a cross beam having at least two attachment sections permitting the attachment of the cross beam to a vehicle support structure, and at least one electrical drive unit connected to the cross beam via at least one elastic drive mount.

Abstract: The invention relates to a device for locating a subframe to a vehicle body having a control hole. The device comprises a pin attached to the subframe and extending toward the vehicle body when the subframe is positioned for mounting to the vehicle body. The pin is adapted to engage the control hole to precisely align the subframe and the vehicle body. The invention also relates to a method for locating a subframe to a vehicle body having a control hole. The method comprises providing a pin on the subframe that extends toward the vehicle body when the subframe is positioned for mounting to the vehicle body, and engaging the pin with the control hole to precisely align the subframe and the vehicle body.

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 industrial truck, in particular counterbalance fork-lift truck, has a front drive axle (2) which has at least one electric drive motor and is fastened together with other components (K) to a vehicle frame (1). A component carrier (T) adjoining the drive axle (2) at the rear in the longitudinal direction of the vehicle is rigidly connected to the drive axle (2) and at least one vibration-producing and/or vibration-transmitting component (K) is fastened on the component carrier (T). The drive axle (2) with the component carrier (T) and the components (K) fastened thereon form a preassembled axle assembly, which is elastically mounted on the vehicle frame (1).

Abstract: A frame for a machine may include a load transfer member attached to a load support member and to a first plate member and a second plate member. Additionally, the first and second plate members may each include an aperture shaped to receive a trunnion. The load transfer member may be disposed proximate to the apertures.

Abstract: In a vehicle front structure (10), a cross member (52) which is disposed above paired side members (12) includes vehicle width-direction both end portions extending toward a rear side of the vehicle. The cross member (52) is connected with vehicle front-side portions of the paired suspension towers (42) at edges of the extending portions. Therefore, when a vehicle has a frontal collision at high speed, a collision load applied to the cross member (52) can be effectively received by the paired suspension towers (42), and can be transmitted to the paired suspensions. Thus, the cross member (52) can effectively receive the collision load, and can efficiently transmit the collision load to the rear side of the vehicle.

Abstract: A structure for a motor vehicle front end assembly includes a mini-cradle having mounted thereon a suspension arm for each wheel of the front end assembly. The suspension arm has the shape of a boomerang. The supporting end of the suspension arm is coupled to a wheel. A front articulation end (point A) and a rear articulation end of the arm are coupled to the mini-cradle. The mini-cradle has a body and two side rails that extend towards the vehicle front. The two side rails are coupled, via a coupling unit, to a side member of the vehicle in a zone located forward, relative to the longitudinal axis of the vehicle, of point A of the suspension arm. The coupling unit includes at least one hollow body allowing a through screwing unit to couple the rail with the side member.

Abstract: An engine suspension device for a motorcycle can be increased in design flexibility and weight. An engine suspension device for a motorcycle has a suspension link provided between a body frame and an engine for pivotably supporting the engine. The suspension link includes a link body. Two pairs of right and left cylindrical members are provided at opposite ends of the link body and are connected to the body frame and the engine, respectively. The pairs of right and left cylindrical members are spaced apart from each other in the lateral direction of the motorcycle. The suspension link further includes a right connecting member for connecting the right cylindrical members and a left connecting member for connecting the left connecting members. The right and left connecting members are connected to each other by the link body.

Abstract: A framework of a vehicle provided with an engine mounted in an engine room and having a crank shaft, includes a subframe extending in the lateral direction of a space at the back of the engine. A steering gear box provided above the subframe extends in the lateral direction and an exhaust pipe that extends in the longitudinal direction crosses the gear box. A longitudinally extending recessed portion is formed on a top surface of the subframe so that the exhaust pipe provided under the steering gear box enters the recessed portion. Arch-shaped reinforcing members spanning over the exhaust pipe are provided on a top surface of the subframe at longitudinally spaced positions. The reinforcing member toward the front of the vehicle breaks when a physical impact is applied to the front of the vehicle before the reinforcing member disposed toward the rear of the vehicle.

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 power unit support structure to minimize vibration of a vehicle body frame. A mount bracket disposed on a vehicle body frame supports a power unit that includes a longitudinal engine. Specifically, the mount bracket is disposed substantially at a center in a vehicle width direction between a pair of right and left center side frames that form part of the vehicle body frame and extend in a vehicle fore-aft direction. The center side frames are connected together with cross members. The mount bracket is mounted to the cross members via a connection member as a vibration damping material. The power unit is then mounted to the mount bracket via a subframe.

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: The invention relates to an engine mount for mounting an engine on a frame of an agricultural or industrial utility vehicle. The frame has two spaced apart frame elements. Further components of the utility vehicle, such as a gearbox and/or a vehicle axle, can be attached to the frame elements. An outer portion of an engine housing forms a mounting structure through which the engine is mounted on the frame elements, so that no external forces are applied to the engine or to the engine housing. The engine is mounted on the two frame elements using only the mounting structure.

Abstract: A vehicle body structure includes a body frame with a subframe mounted to a lower part of the body frame. The subframe is formed into a rectangular shape and has front, intermediate and rear cross members. A storage battery is designed to be mounted astride the front cross member and the intermediate cross member. A fuel tank is designed to be mounted astride the intermediate cross member and the rear cross member.

Abstract: A mine protection vehicle system is proposed wherein a military wheeled vehicle is provided with a high degree of mine protection. Preferably the vehicle has a three-sectioned vehicle construction that includes a front building block, a main building block and rear building block. The building blocks are separable from one another. The main building block may be designed to be slanted toward the bottom and double walled. A cabin, serving to provide a crew space, is hung up on support structure of the main building block. Wheel axles and drives are built into the front and/or rear building block; however, no wheel axle is disposed below the main building block.

Abstract: An auxiliary power system for a long-haul truck includes a first frame which has an auxiliary power unit mounted thereon using elastomeric isolation mounts. A second frame is affixed in a stationary position to an exterior surface of a single longitudinal rail of the vehicle frame. There is a pair of spring elements each operable in a vertical direction and having a first end thereof pivotally connected to a respective side member of the first frame and having a second end thereof pivotally connected to a respective side member of the second frame, whereby the first frame is capable of moving in a vertical plane relative to the second frame for isolating the auxiliary power unit from the effects of road shock and vibration. Elastomeric isolation mounts are also provided for controlling downward movement of the first frame.

Abstract: A drive motor mounting structure of an electric vehicle, including: a drive motor unit (12) having its front part attached to a vehicle body member (17) in a front part of a vehicle (10) by use of a front motor mount (27); and a rigid robust member (31) disposed in front of and obliquely above the drive motor unit (12), and above and in front of the front motor mount (27).

Abstract: A power train mounting system includes a front mount, a rear mount, an engine mount, and a transmission mount. Installation heights and spring constants of each mount are predetermined such that the majority of the weight of the power train is supported by the front and rear mounts. Mounting axes of the engine mount, front mount, and rear mount are vertical while the mounting axis of the transmission mount is lateral. The transmission mount may include bridges which vary its spring constant during vehicle roll.

Abstract: A vehicle power unit supporting apparatus supports a transversely-mounted power unit having a power source and a speed reduction gear connected to each other. The power unit is supported on a vehicle body by at least a power-source-side mount and a speed-reduction-gear side mount on both of the left and right sides in the vehicle width direction. These mounts are disposed at a position higher than a position of the center of gravity of the power unit. Spring axis lines of the power-source side mount and the speed-reduction-gear side mount are inclined to intersect with each other at a position higher than the position of the center of gravity of the power unit when the vehicle is viewed from the front. An elastic center of the entire power unit supporting apparatus is located at a position lower than the position of the center of gravity of the power unit.

Abstract: A subframe arrangement is configured for a mobile vehicle chassis assembly to enhance isolation of the subframe platform and drive mechanism from flex in the chassis assembly caused by dynamic forces associated with operation of the chassis assembly. The chassis assembly includes a frame having a front and a rear frame support, and a pair of elongated frame side supports interconnected therebetween. The subframe arrangement includes a subframe platform configured to receive the drive-unit, and a plurality of subframe mounting couplings operable to attach the subframe platform to the pair of elongated frame side supports. Each of the plurality of subframe mounting couplings is located along a generally isosceles triangular-shaped arrangement that enhances isolation of the subframe arrangement and attached drive unit.

Abstract: A manufacturing method of a supporting structure for vehicle has steps of preparing a casting mold having: a first and a second casting mold, which are matched to each other at casting, and has forming faces which form at least sides of first and second fixing portions and the connecting portion and a third casting mold having a forming face which forms a fixing face of the second fixing portion and a protruding body which forms a recess hole penetrating to an interior of the connecting portion from the fixing face of the second fixing portion; matching the third casting mold together with the first and the second casting mold so as to form a cavity for integrally forming the first fixing portion, the second fixing portion and the connecting portion in the casting mold; and pouring molten metal into the cavity so as to mold the supporting structure.

Abstract: A liquid sealed vibration isolating device having a first mounting member to be mounted on the side of a vibration source, a second mounting member to be mounted on the side to be vibrated, and an insulator being placed between said first and second mounting members so as to absorb vibration. A liquid chamber uses the insulator as a part of a wall thereof and is filled with a hydraulic liquid. A partition member partitions the liquid chamber into a primary liquid chamber and a secondary liquid chamber. A passage is provided between the primary and secondary liquid chambers. A valve portion is provided on a diaphragm enclosing the secondary liquid chamber to open and close a port of the passage.

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: For spatial arrangement of a drive motor (1) in a motor room (2), a three-point support system (TPS) includes supports (SP1, SP2) having a vibration suppressing member (3) for suppressing vibrations to be transmitted from the drive motor (1), a first bracket (5) for fixing the vibration suppressing member (3) to a transversely inner lateral side (4a) of a side member (4) of a front part (VBf) of a vehicle body, and a second bracket (6) for fixing the drive motor (1) to the vibration suppressing member (3), while the first bracket (5) is fastened to the inner lateral side (4a) of the side member (4), and the second bracket (6) is fastened at a proximal end (6a) to the vibration suppressing member (3) and at a distal end (6b) to the drive motor (1) to be disposed lower than the side member (4), with a reduced vibration transmission from the drive motor (1) to the vehicle body, allowing a facilitated removal of the drive motor (1).

Abstract: A subframe structure for an automotive vehicle wherein a subframe is attached through a rubber mount to a vehicle body, suspension components are assembled onto the subframe so that the suspension components are held connected to the vehicle body through the subframe, and a detecting assembly capable of providing an output signal according to a load that acts between a subframe and a vehicle body is provided. A rubber mount for use in this subframe structure is also disclosed.

Abstract: The present invention provides an engine room frame structure of a fuel cell vehicle that improves assembly process by a module operation and reduces the number of assembly processes, thus improving productivity. The engine room frame structure of a fuel cell vehicle includes: a sub-frame on which a motor 11, an air blower 12, and component parts 13 of an electrical system and a fuel cell system are mounted in the form of a module; and a main frame 20 on which the sub-frame 10 is mounted.

Abstract: A shock absorbing member includes a first member composed of a first tube and a second tube which is located at a center of the first tube. Shock absorbing material is filled between the first tube and the second tube. Two second members are located below the first member and connected to the first member by at least one board. Each second member has a third tube and a fourth tube which extends through the third tube. Shock absorbing material is filled between the third tube and the fourth tube. Four shock absorbing member are connected between a first frame and a second frame. The first members are connected with the first frame which carries power system such as engine, and the second members are connected to a second frame which is connected to wheels.

Abstract: A power plant mounting apparatus includes a mount member that enables a side member of a vehicle to support a power plant. The mount member has a supporting member whose one end is fixed to the power plant. The supporting member has a shaft portion at the other end thereof which is disposed within an outer tube. An insulator is provided between the shaft portion and the outer tube. A bracket of a flat plate-shape attached to the outer tube is fastened to an inner side surface of the side member by means of a bolt. A center point of the shaft portion within the outer tube is positioned within the side member.

Abstract: A structure for mounting an engine for a vehicle which includes: a supporting member for supporting the engine on a front side thereof, leaving a space between the engine and the supporting member; and an auxiliary equipment disposed in the space, wherein the supporting member has a strength against a load applied thereto in a longitudinal direction of the vehicle less than that of the auxiliary equipment.

Abstract: The modular front end forms the front portion of a motor vehicle. The modular front end includes a bulkhead defining a plurality of integrally formed attachment mounts. A drive train assembly carrying at least an engine of the motor vehicle is attached to the bulkhead at the attachment mounts. A crash energy absorption assembly is attached to the attachment mounts on the bulkhead and generally extends around the drive train assembly. An apron assembly is attached to the bulkhead at the attachment mounts and is generally positioned above the drive train assembly and crash energy absorption assembly.

Abstract: A subframe arrangement is configured for a mobile vehicle chassis assembly to enhance isolation of the subframe platform and drive mechanism from flex in the chassis assembly caused by dynamic forces associated with operation of the chassis assembly. The chassis assembly includes a frame having a front and a rear frame support, and a pair of elongated frame side supports interconnected therebetween. The subframe arrangement includes a subframe platform configured to receive the drive-unit, and a plurality of subframe mounting couplings operable to attach the subframe platform to the pair of elongated frame side supports. Each of the plurality of subframe mounting couplings is located along a generally isosceles triangular-shaped arrangement that enhances isolation of the subframe arrangement and attached drive unit.

Abstract: An industrial truck, in particular a fork lift truck, is provided with a rear weight and an internal combustion engine. The internal combustion engine is fastened to the rear weight. The internal combustion engine is advantageously mounted so that it can oscillate around an axis that extends in the transverse direction of the industrial truck.

Abstract: An electric motor includes a chassis having a front tube to rotatably support a handle, two arms each having one end pivotally attached to the chassis to support two front wheels on the outer ends. A cushioning device may be used to cushion the front wheels and the arms relative to the chassis. A carrier is pivotally attached to the rear portion of the chassis, and includes a spindle to support two rear wheels. An electric motor device is attached to the carrier to drive the rear wheels. Another cushioning device may be used to cushion the rear wheels and the carrier relative to the chassis.