Abstract: An electric storage device includes: a battery block including a chassis with a plurality of storage cells installed therein; a control unit placed on the chassis for monitoring states of the plurality of storage cells based on signals concerning their physical quantities; a plurality of wires arranged on the chassis for directing the signals to the control unit; a confining member fixed on one surface of the chassis, where the control unit is placed, for defining a route along which the plurality of wires are arranged. The confining member includes a first direction restrainer defining the route for bending the wires, withstanding a reaction force accompanying bending of the plurality of wires, and a second direction restrainer withstanding a force exerted by the plurality of wires which are inserted into the route and tend to be lifted up toward a leaving direction from the one surface of the chassis.

Abstract: A battery unit comprises plural side connection portions which are provided at its both-side end portions in a vehicle width direction and connected to said vehicle-body member, and these connection portions are connected to a high rigidity portion of a vehicle-body member, concretely, to the vehicle-body member at a specified position where floor cross members integrally connected to a vehicle floor panel are located, to the vehicle-body member at a specified position where a torque box is located, or to the vehicle-body member at a specified position where a kick-up portion of the vehicle floor panel is located. Accordingly, the torsional rigidity of the vehicle body can be increased by utilizing the battery unit mounted below the vehicle body floor (vehicle floor panel).

Abstract: An electric vehicle is provided with a swing arm one end of which is coupled to a swinging shaft and the other end of which supports a rear wheel. An electric motor is installed on the side of the other end of the swing arm and drives the rear wheel. The swing aim is provided with a housing space provided in the vicinity of the swinging shaft and a guide groove that positions the battery in the housing space, the battery is mounted inside the swing arm by fixing the battery positioned in the housing space via potting material. The housing space is provided with an opening for inserting the battery on the side of the electric vehicle and the battery is inserted and fixed into/to the housing space of the swing aim from the side of the electric vehicle.

Abstract: An electric vehicle includes a vehicle body and a battery pack. The vehicle body has in a lower portion thereof a sign showing a specific position to be jacked up. The battery pack is mounted on the lower portion of the vehicle body and includes a bottom wall having a mark showing a position where a liquid draining hole communicating with an inside of the battery pack is to be bored. The mark is disposed at a position lower than the specific position within the vehicle body in a state where the vehicle body is inclined by jacking up the specific position.

Abstract: Disclosed is a battery pack including a battery module array having battery modules which are arranged in a lateral direction in two or more rows, each of the battery modules configured with battery cells or unit modules, each of which has two or more battery cells mounted therein, are stacked in a state in which the battery cells or the unit modules are erected vertically, a base plate on which the battery modules are stacked in a vertically erected state, a pair of main members provided at the front and rear of the battery module array, opposite ends of each of the main members being fastened to an external device, a pair of end plates disposed in contact with the front and rear of the battery module array such that the lower end of each of the end plates is fixed to the base plate, and supporting bars.

Abstract: A base frame for an electric work vehicle equipped with a battery-driven electric motor includes a base plate, a plurality of device installation compartment plates and a battery accommodation compartment plate. The device installation compartment plates are fixed onto the base plate, and form a plurality of installation regions for mounting a variety of devices of the vehicle onto the base plate. The battery accommodation compartment plate is fixed onto the base plate, and forms a region for accommodating a plurality of batteries in an inside thereof.

Abstract: A battery is arranged at a specified position which is located on an outside of a front side frame in a vehicle width direction and between a front wheel and a crush can in a vehicle longitudinal direction. Accordingly, the battery can be positioned properly at a front portion of a vehicle so that the battery may not receive any improper thermal influence from an engine or a motor and not hurt the function of impact absorption in a vehicle frontal collision.

Abstract: A vehicle, particularly a motor vehicle, comprising at least one electromotive drive unit and a power supply module capable of supplying the electromotive drive unit, a running gear mechanically coupled to the electromotive unit, and a chassis attached to the body of the vehicle, in the vicinity of the running gear, onto which the electromotive unit and the power supply module are attached, characterized in that the chassis defines a platform attached below the body of the vehicle, between the body of the vehicle and a floor separating a useful space of the vehicle which is part of the passenger compartment or adjacent to the passenger compartment, and in that the chassis is capable of receiving and supporting the electromotive unit and the power supply module, wherein the electromotive unit and the power supply module are arranged on either side of the chassis.

Abstract: A vehicle includes a cooling system for electric apparatus that includes a lower cell, an upper cell that is disposed above the lower cell, and a converter that is disposed above the lower cell and that converts a voltage of electric power input to or output from the lower cell and the upper cell, in which the lower cell, the upper cell, and the converter are cooled by refrigerant, and the refrigerant inlets of the converter are disposed in the vicinity of a refrigerant outlet of at least one of the upper cell and the lower cell.

Abstract: An electric bus is disclosed, comprising a body including a floor, a rear cabin, and two front wheel wells. The front wheel wells are disposed in a middle section of the body. The body further includes a seat area having one or more seats arranged in one or more rows. The rear cabin is disposed behind a back row of the seats. The electric bus further includes a chassis and a battery system for providing electric power to the electric bus. The battery system further comprises a first battery group disposed above the respective front wheel wells; a second battery group disposed under the floor and proximate to an intermediate row of the seats; and a third battery group disposed under the floor and proximate to a back row of the seats and in the rear cabin behind the back row of seats.

Abstract: A cleaning machine having two front wheels and two rear wheels supporting a chassis, the chassis having a central spine, the cleaning machine including a first electrical cell for propelling the cleaning machine, said first electrical cell being positioned between one of the front wheels and one of the rear wheels and outboard of the central spine.

Abstract: A high-voltage apparatus includes a battery device, a high-voltage control device, a housing, and a cooling structure. The cooling structure includes a first cooling channel to cool the battery device, a second cooling channel to cool the high-voltage control device, a connection channel connecting the first cooling channel to the second cooling channel, and a ventilator. The connection channel has a first opening portion connected to the first cooling channel, a second opening portion connected to the second cooling channel, and an inner flow path to communicate the first opening portion to the second opening portion. A sectional area of the first opening portion and a sectional area of the second opening portion are each set to be smaller than a sectional area of the inner flow path.

Abstract: Disclosed is a battery pack including (a) a battery module array having battery modules arranged in two or more rows, (b) a pair of side support members that are in close contact with outermost unit modules in the battery modules in the battery module array, (c) lower end support members coupled to lower ends of the side support members, (d) two or more first upper mounting members coupled to upper ends of the side support members and lower ends of the battery modules erected in an upside-down fashion, (e) a second upper mounting member coupled to upper ends of the first upper mounting members, and (f) a rear mounting member disposed at the rear of the battery module array.

Abstract: A battery protection structure for an automobile includes a rocker placed in a side portion of a body, a floor panel whose outer end in a body width direction is secured to the rocker, a reinforcement located more inward in the body width direction than the rocker, and secured to the floor panel, the reinforcement forming a part of a frame of the body, a battery located more inward in the body width direction than the rocker, and placed below the floor panel in the body, and an input member that connects between the rocker and the reinforcement, and configured to input, upon input of a collision load directed inward in the body width direction to the rocker, a part of the collision load to a midsection of the floor panel between the rocker and the reinforcement as a component directed upward of the body.

Abstract: A vehicle body structure is provided with a vehicle body member, a charger, a structural support member. The charger includes an upper end portion and a lower end portion. The lower end portion of the charger is supported on the vehicle body member. The structural support member extends in a widthwise direction of the vehicle body structure in a position rearward of the upper end portion of the charger and adjacent the upper end portion of the charger.

Abstract: The present teachings relate generally to a small remote vehicle having rotatable flippers and a weight of less than about 10 pounds and that can climb a conventional-sized stairs. The present teachings also relate to a small remote vehicle can be thrown or dropped fifteen feet onto a hard/inelastic surface without incurring structural damage that may impede its mission. The present teachings further relate to a small remote vehicle having a weight of less than about 10 pounds and a power source supporting missions of at least 6 hours.

Abstract: A battery pack to be mounted on a vehicle. The battery pack has a battery stack. A cooling fan, a fan relay, and a main relay (?) are disposed on one side of the battery stack. A control module, a register, a main relay (+), and a pre-charge relay are disposed on the other side of the same. As a result of devices being disposed on both sides of the battery stack, the weight of the battery pack is adjusted to the neighborhood of the center of the battery pack.

Abstract: A vehicle including a battery residing in a compartment having at least one vented wall. The vehicle further includes an at least partially hollow frame having an air inlet. A conduit extends between the frame and the battery box providing fluid communication therebetween.

Abstract: A grass mowing machine operator platform includes a one-piece plastic composite molded structure with a top surface and an outer wall, and a plurality of slots in the top surface and outer wall. A pair of steering levers may be pivotably mounted to steering pivot bolts in the slots in the top surface, and a brake lever pivotably mounted in a slot in the outer wall. The slots where the steering levers and brake lever are mounted have integral bearing surfaces.

Abstract: A scalable intelligent power-supply system and method capable of powering a defined load for a specified period of time is disclosed and claimed. Multiple external AC and DC inputs supply power to the system if available and required. An internal DC input from a back-up energy source is on board. The back-up energy source is scalable by adding additional energy cartridges such as batteries in racks mounted within frames of the system. The AC and DC inputs (including the internal DC input) are controlled, measured, sensed, and converted by circuitry controlled by the microprocessor into multiple AC and/or DC outputs. A microprocessor manages power input to, within, and output from the system. The performance of a Lithium-ion batteries used to power an automobile can be determined on the basis individual battery packs or individual battery cells within the packs.

Abstract: A vehicle includes a body outer panel; a battery; a second seat including a seatback; a seatbelt apparatus including a webbing; and a side trim positioned behind the seatback of the second seat in a vehicle front-rear direction. The side trim includes an insertion opening through which the webbing of the seatbelt apparatus is inserted, an exhaust opening through which exhaust air after cooling the battery is discharged into a space between the side trim and the body outer panel, and an inlet opening which is positioned behind the insertion opening in the vehicle front-rear direction, and through which the exhaust air in the space is drawn into a vehicle room.

Abstract: The disclosed invention provides a system and apparatus for monitoring battery status and usage to facilitate battery protection, battery repurposing and battery maintenance. Wireless interrogation of a battery's location and key attributes provides efficiencies to manage the total lifecycle of an electric vehicle battery, whether installed in a vehicle or in an environment external to the vehicle environment. A wireless battery tether, combined with a wireless battery reader, a wireless battery gateway and a centralized battery monitoring server allows management of the high-voltage battery through its lifecycle.

Abstract: A structure for a vehicle body lower portion according to the present invention includes: a side sill (3) located on each side in a vehicle width direction and extending in a vehicle front-rear direction; a side member (13) joined to a lower face (1b) of a floor panel (1) and extending in the vehicle front-rear direction at a position above the side sill (3) and inside the side sill (3) in the vehicle width direction; a brace member (39) connecting a lower part of the side member (13) to an upper side of the side sill (3); and an outer cross member (37) connecting the lower part of the side member (13) to a lower side of the side sill (3).

Abstract: Disclosed is an electric vehicle battery attaching/detaching device including a battery mounting unit formed on an electric vehicle to detachably mount a battery and provided with a connector pin module adapted to be lifted/lowered by a lifting/lowering means; a loader having a plurality of battery stands, each battery stand being adapted to detachably mount a fully-charged battery to be exchanged with the battery mounted on the battery mounting unit; and a battery attaching/detaching unit adapted to move along X-axis, Y-axis, and Z-axis between the battery mounting unit and the battery stand by means of a movement device, detach a battery mounted on the battery mounting unit or the battery stand, and exchange/mount the battery on the battery stand or the battery mounting unit.

Abstract: A cooling structure having a sufficient cooling efficiency in cooling an electricity storage device while securing a living space in a vehicle cabin when installed in a compact vehicle having a short distance from a rear seat to the rear end of the vehicle. A battery is contained in an IPU installed in the vehicle. The cooling structure for the battery has an air inlet opened into the vehicle cabin, an air intake duct extending from the air inlet to the IPU and a cover disposed to cover the air inlet and having a hole communicating the air intake duct with the inner side of the vehicle cabin. The air inlet has an opening inclined toward the inner side of the vehicle cabin in one side section of a rear portion of the vehicle cabin near a C-pillar located obliquely posterior to a rear seat.

Abstract: A battery is arranged so as to be located between left and right frame members in plan view of the vehicle and to the rear of the cylinder with respect to the front-back direction of the vehicle and so as to overlap at least a portion of the transmission case with regard to the location of at least a portion of the battery in the front-back direction of the vehicle, the long side of the battery being furthermore oriented in the front-back direction of the vehicle and the short side of the battery being oriented in the widthwise direction of the vehicle.

Abstract: A riding vehicle may include a battery compartment and one or more grip tabs. The battery compartment may be configured to house a battery of the riding vehicle. The one or more grip tabs may be disposed in the battery compartment and may extend from one or more walls of the battery compartment to engage the battery in response to insertion of the battery into the battery compartment. The one or more grip tabs and the battery compartment may be formed from a same unitary piece of material.

Abstract: A battery gas discharge system is provided having a floorpan with an outlet and a fastener aperture. The outlet and the fastener aperture are laterally spaced from each other. The system also includes a battery module with a base for resting upon the floorpan. An attachment aperture and a vent aperture are formed through the base. The attachment aperture and the vent aperture are laterally spaced from each other. A gas discharge mechanism defines a passageway for gas discharge between the battery module and the vent aperture. The gas discharge mechanism includes a vent port that is coupled to the vent aperture and sized for receiving discharged gas. The vent port is adapted for mating with and forming a seal about the outlet by securing the base to the floorpan during assembly.

Abstract: An underbody for an electric vehicle configured as an electric vehicle lower body includes a multiply divided battery mounting portion and an underbody portion. The multiply divided battery mounting portion enables multiply divided and selective mounting of batteries, and forms a portion of the underbody. The underbody portion is connected to the battery mounting portion and forms another portion of the underbody.

Abstract: In an electrically-operated vehicle including rear wheels on right and left sides of a rear portion of a vehicle body, the electrically-operated vehicle includes a motor that drives the rear wheels, a battery 51 that is arranged above the motor, and a lower battery that is placed between the right and left rear wheels. The lower battery and the motor are arranged in a distributed manner over an axle of the rear wheels between a vehicle front side of the axle of the rear wheels and a vehicle rear side of the axle of the rear wheels. An upper end portion of a rear cushion is supported on a vehicle body frame, and the battery and the motor are supported on a lower end of the rear cushion.

Abstract: In a storage part structure for a saddle type vehicle including a storage box and a battery box it is possible to easily detach a battery box to enhance maintenance. The storage part structure for the saddle type vehicle includes the storage box and the battery box formed as a body separate from the storage box and fixed to the storage box. In the storage part structure, the battery box is disposed under the storage box with a horizontal part cross member constituting a body frame being disposed under the battery box. In addition, the battery box is mounted on the horizontal part cross member.

Abstract: A vehicle includes a cabin, a high voltage traction battery, an electric motor powered by the traction battery, and a charger connected to the traction battery. The charger converts alternating current (AC) to high voltage direct current (DC) to charge the traction battery when the charger is plugged into an alternating current (AC) power supply. A forced air system includes an air inlet duct, a first air outlet duct directing exhaust air to the outside of the cabin, a second air outlet duct directing exhaust air to the inside of the cabin, a fan, and a valve for controlling air flow through the first and second air outlet ducts. The forced air system is arranged such that forced air flows through the air inlet duct, removes heat from the charger, and flows through at least one of the first and second air outlet ducts to assist with vehicle preconditioning.

Abstract: A built-in equipment for a micro-hybrid device for an automotive vehicle, and to a micro-hybrid device comprising the same. The built-in equipment for a micro-hybrid device for an automotive vehicle of the present invention can be electrically connected to operational components of the micro-hybrid device and comprises a pack of super-capacitors provided with voltage balancing means and electronic circuits. The equipment comprises a housing containing a first compartment for receiving the pack of super-capacitors, and a second for receiving the electronic circuits and the voltage balancing means.

Abstract: In a hybrid working machine including a power storage device serving as a power source for a generator motor and a controller for controlling this power storage device, the power storage device and the controller being each made up of a main body and casing covering the main body, the power storage device is arranged on the upper side of a top plate of a stand provided on an upper frame, the controller is arranged on the lower side, an intake port is provided in the casing of the power storage device, an exhaust port is provided in the casing of the controller, a ventilation port is provided in the top plate, and the cooling air is fed into the interior of the power storage device and the controller, so that the power storage device and the controller are cooled down.

Abstract: A vehicle is presented. The vehicle may include a vehicle body frame; a drive wheel suspended from the vehicle body frame; a drive motor for driving the drive wheel; a battery for supplying electric power to the drive motor; a floor panel constituting a floor surface of the vehicle; and a battery support plate having a battery placement surface on which the battery is placed; wherein the battery support plate and the floor panel are supported on the vehicle body frame; and the battery placement surface is positioned below an upper surface of the floor panel.

Abstract: The system includes a robot body and a main robot control platform. The robot body includes a mechanical part and an electrical control part. The mechanical part includes a horizontal moving unit, an objective carrying platform unit and a bearing unit which are arranged in X, Y and Z cartesian coordinate directions. The objective carrying platform unit includes an objective carrying platform and a battery drive mechanism arranged on the objective carrying platform. A battery pushing mechanism is arranged on the battery drive mechanism. The electrical control part includes a data collection device connected with a main control computer system, a power drive mechanism, an I/O model and a wireless communication model I. The wireless communication model I, the wireless communication model II of a control backend and the wireless communication model III in the remote control device wirelessly communicate with each other.

Abstract: In a power supply mounting structure, a rib of a height that covers a gap of a case is provided protruding in a position adjacent to the gap, on a mounting surface of an interior part that is mounted to the case.

Abstract: A battery unit mounting structure for a vehicle of the present invention includes a floor panel, a side member attached to a lower surface of the floor panel, and extending in a longitudinal direction of the vehicle, and a bracket mounted on an upper surface of the floor panel above the side member. The bracket includes an attachment portion which is attached to the side member in a three-layer structure, two vertical wall portions extending upward from respective corresponding end portions in a transverse direction of the vehicle of the attachment portion, and two support portions configured to support the battery unit, and each extending from an upper end of the corresponding one of the two vertical wall portions in a direction away from a center of the bracket.

Abstract: A battery is integrated with a down frame and a bottom frame. When fixation of the battery to a main frame is released upon release of locking means, the down frame, the bottom frame, and the battery are allowed to swing pivotally around an engagement position where the bottom frame is engaged with pivot frames. A front wheel is located on at least any one of swing loci of the down frame, the bottom frame, and the battery drawn when the down frame, the bottom frame, and the battery swing pivotally around the engagement position. The front wheel deviates from the swing locus in a state where the handlebar is turned.

Abstract: A battery box includes a flange, a side wall and a bottom wall. The flange is connected to an inner peripheral edge of an installation hole formed in a floor panel of a vehicle. The side wall gently continues with the flange, and is extended downward. The bottom wall, has a periphery gently continuing with the side wall, and is formed with at least one open hole in a center of the bottom wall. Seat portions are projected upper than the bottom wall. At least one seat portion is disposed at each both sides of the open hole. A bottom cover closes the open hole. A corner portion gently continues with the side wall and the bottom wall forming curved surface. A center of curvature of the curved surface is set inside a corner of a battery to be placed on the seat portions.

Abstract: The object of the present invention is to provide an electric construction machine capable of efficiently cooling the battery mounted on the swing structure. To achieve the object, there is provided an electric construction machine in which a battery storage room 11 is formed in the swing structure 3 and a plurality of batteries 231 as electric power sources are arranged in the battery storage room 11, comprising: a battery storage structure 23 storing the batteries 231 and having an air flow channel through which air can flow upward from a lower part of the battery storage structure 23; a covering sheet 26 entirely covering the top and side faces of the battery storage structure 23; and a duct 27 for discharging the air, one end of which is arranged in an upper part of the covering sheet 26.

Abstract: A battery pack tray includes: a tray body including: a bottom which has a concave-convex portion that includes convex and concave portions which extend in a first direction; and a wall which is upward bent from a periphery of the bottom; reinforcement frames provided along opposed wall portions of the wall in a second direction perpendicular to the first direction; a cross member disposed on an upper surface of the concave-convex portion, and forming a first closed cross-section with the concave-convex portion, both end portions of the cross member being secured to the reinforcement frames; an inner cross member secured to an upper surface of the cross member, both end portions of the inner cross member being secured to the reinforcement frames; and attachment brackets secured to the reinforcement frames.

Abstract: A battery case structure for a motorcycle can include a battery case for storing therein a battery to be mounted in a motorcycle, and a starter relay and a fuse box as related parts which can be connected to the battery. A starter relay mounting portion and a fuse box mounting portion in which the starter relay and the fuse box are disposed relative to the battery case are provided. A sub-case is disposed near the battery on an inside of a battery case main unit. The sub-case includes the starter relay mounting portion and the fuse box mounting portion.

Abstract: A support structure component is provided for a motor vehicle body and to a correspondingly configured motor vehicle body. The support structure component includes, but is not limited to a support element and a plastic fastening structure arranged thereon, which includes, but is not limited to a fastening element for fastening a motor vehicle component.

Abstract: Inside of a swing arm (30) that pivotally supports a rear wheel (WR) of an electric two-wheeled vehicle (1) and that is freely swingably attached to a vehicle body, a battery (56), an electric motor (M) for driving the rear wheel (WR), and a board (50) serving as a control device for controlling the electric motor (M) are equipped. Coupling a throttle grip (80) and a throttle position sensor (60) by physical transmission means (62, 85, 86) therebetween allows a configuration so that a turning angle of the throttle grip (80) can be detected, and the throttle position sensor (60) is attached to the board (50). The board (50) is disposed with a planar portion oriented in a vehicle width direction.

Abstract: The invention relates to an electrical connection system for a motor vehicle with electric drive so as to make it possible to electrically connect means of electrical energy storage of the vehicle to an electrical source with a view to their charging, characterized in that it comprises: at least one electrically conducting bar extending in such a way as to be accessible from beneath the vehicle between front and rear regions thereof, each electrically conducting bar comprising an electrically conducting active surface connected electrically to the means of electrical energy storage of the vehicle, the active surface being intended to come into contact with complementary means of the electrical source, protection means for protecting the active surface of the electrically conducting bar, the bar and the protection means being able to move relative to one another between a so-called charging position where the active surface of the bar is disengaged from the protection means and a so-called off-charge position

Abstract: A vehicle rear structure protects a battery unit in a rear-end collision. The vehicle rear structure has a battery unit positioned behind a torsion beam; first and second cross members spanning between side members; a frame member that supports the battery unit; a bridge member spanning from the first cross member to the second cross member, and connected at a rear flange to the second cross member; and reinforcements that are respectively disposed to the side members and reinforce the side members from the front edge to the rear edge of the second cross member. The torsion beam is positioned near directly below the second cross member. The side members slope down to the front from the front end part of the reinforcement.

Abstract: A scooter-type motorcycle is provided with a fuel cell system for driving the motorcycle by an electric power and includes: a vehicle body including a pair of left and right upper frames extending in a longitudinal direction of the vehicle body and a pair of left and right lower frames extending in the longitudinal direction of the vehicle body and having rear side end portions bent and connected to the respective upper frames; a fuel cell mounted on the vehicle body; a fuel tank connected to the fuel cell, in which the fuel tank is disposed in a center tunnel surrounded by the upper frames and the lower frames. A pair of left and right upper frames and a pair of left and right lower frames constitute a fuel tank supporting structure.

Abstract: A front wheel drive powered wheelchair is provided and may include a support frame, a pair of opposing drive wheels, a pair of drives, and a pair of rear wheels. The frame may include a front portion, a seat post, and two independent arms extending rearward from the front portion. Each drive wheel may be coupled to the front portion of the frame. Each drive may be mounted to the front portion of the frame and may be operatively connected to a respective drive wheel of the pair of drive wheels. Each rear wheel may be coupled to a respective independent arm of the support frame. Each independent arm may be capable of flexing independent of the other.

Abstract: In a mounting structure for a vehicle battery box, a battery box is supported in a suspended manner between left and right rear side frames at the rear of a vehicle with first and second cross members that are installed between the left and right rear side frames. The first cross member is fixed at a substantially front end of a rear deformation zone that is set at the left and right rear side frames. High-voltage equipment is fixed between the first and second cross members on the top surface of the right rear side frame. The battery box is electrically connected to the high-voltage equipment with a connecting member.