Abstract: An integrated window frame and blind unit includes a frame having an inner bezel and an outer bezel configured to sandwich a wall of a structure between them. A window pane may be installed to the outer bezel to cover an opening therein. A blind unit may be inserted through a similar opening in the inner bezel and attached to a header portion and/or sill portion of the frame. The inner and/or outer bezel may include snap features to effect the attachment.

Abstract: The present disclosure provides a trim panel assembly of a vehicle. The trim panel assembly includes a first member having a first surface and a second surface, and including a first assembling area, a first groove positioned on the first surface along a peripheral of the first assembling area, and a plurality of first through-holes positioned in the first groove and spaced apart from each other; and a second member including a first main body corresponding to the first assembling area, and a plurality of leg portions extending from the first main body. The plurality of the first leg portions correspond to the plurality of the first through-holes, respectively, and the plurality of the first leg portions pass through corresponding a plurality of the first through-holes, extend onto and connect to the second surface of the first member.

Abstract: A door system is provided for a motor vehicle. That door system includes (a) a first independently operable first, door, (b) an independently operable second door, (c) an articulating door interface carried on the first door and (d) a guide on the motor vehicle body. The guide displaces the articulating door interface between a door sealing position when the first door is closed and a door opening position when the first door is opened. A related method is also provided.

Abstract: A vehicle closure including a rotatable lift gate and a decklid that is rotatably connected to the liftgate. First and second electrically powered actuators provide powered opening and powered closing of the liftgate and the decklid, respectively. The first powered actuator locks to prevent movement of the liftgate when the second powered actuator is actuated, and the second powered actuator locks to prevent movement of the decklid when the first powered actuator is actuated.

Abstract: A sliding support arrangement for supporting a slidable element in a closure of a roof assembly for a vehicle with respect to mutually orthogonal X, Y and Z directions, comprising at least a guide rail extending substantially in the X-direction. The slidable element carries a slide shoe engaging the guide rail and supporting the slidable element at least in the Z-direction. The slide shoe includes a first part fixed to the slidable element and a relatively movable second part. The second part is supported by the first part mainly through a spring urging the slide shoe parts in engagement with walls of the guide rail. The spring exerts a force which is directed at a non-perpendicular angle to at least one wall of the guide rail.

Abstract: A vehicle having a slider for guiding a displaceable element of the vehicle relative to a body of the vehicle, wherein the slider can be arranged so as to be movable along a guide element, and has a plastics region and a metal region. The slider may be embodied in one piece, wherein the metal region is at least partially overmolded with the plastics region. The slider may be configured such that at least one portion of the slider engages at least partially around the guide element.

Abstract: An arrangement with a cover for a vehicle roof, which can be raised for opening by way of deployment means in the rear region thereof and which cover can be displaced toward the rear over the vehicle roof into an open position. The deployment means have a displaceable sliding carriage and a rear deployment lever which is pivotably coupled to the cover and which is pivotably coupled to a bearing which is stationary fixed with respect to the guide rail and which has a first coupling element. Furthermore, the deployment means have a deployment rod for the deployment of the rear deployment lever. The stationary fixed bearing is arranged such that a pivot axis of the stationary fixed bearing is arranged above a base of the guide rail.

Abstract: Disclosed is an awning which is specifically designed to attach, in a horizontal orientation, above the heads of passengers in a convertible automobile. The occupants may travel with the convertible top down and enjoy a relative cooler temperature and protection from ultraviolet rays. Generally, the screen material used to comprise the awning is of a mesh design, sized and fitted to be usable for providing overhead coverage of the passenger seats on a specific convertible. Varying lengths and widths of the screen material are fabricated for different size automobiles. The awning is supported at the windshield header of the convertible and by two vertically-oriented posts behind the rearmost seats of the convertible. The awning is readily installed on the automobile and may, when not in use, be rolled up and stored within the trunk of the subject convertible.

Abstract: There provided an openable roof, a link mechanism foldably supporting the openable roof, and a drive device to drive a drive link of a link mechanism. The drive device comprises a drive unit including a drive gear connected to a drive motor, a driven gear provided at the drive link, and an intermediate gear engaging with the drive gear and the driven gear. The drive unit is located at a lower level than a beltline of the vehicle body, the driven-gear pivotal portion is located at a higher level than the beltline, and the intermediate gear is located at a specified level such that the intermediate gear overlaps the beltline in a side view.

Abstract: There are provided a front roof, a rear roof, a glass unit including a rear-window glass, a rear roof support link which openably supports the rear roof at a vehicle body, a front-roof support link mechanism which openably supports the front roof, the front-roof support link mechanism being connected to the rear roof support link such that closed states of both the front roof and the rear roof are achieved by means of the rear roof support link and the front-roof support link mechanism, and a glass-unit support link mechanism which is connected to the rear roof support link and configured to support the glass unit in a closed position.

Abstract: An adjustable canopy bracket for adjustably supporting a canopy to a roll bar of a vehicle, including a lower bracket plate securely positionable about a lower portion of a roll bar member of the roll bar; an upper bracket plate securely positionable about an upper portion of the roll bar member, the upper bracket plate engageable with a forward portion of the canopy; and an adjustable height mechanism engageable with a rearward portion of the canopy, the adjustable height mechanism operable with a rearward portion of the upper bracket plate, wherein adjusting the adjustable height mechanism raises and lowers the rearward portion of the canopy to provide a desired angle of the canopy relative to the roll bar member. An adjustable canopy for attaching to a roll bar of a vehicle is also disclosed and claimed.

Abstract: An openable roof lock structure for an automobile includes an engaged member fixed to a front header, and an automatic lock device fixed to an openable roof, the automatic lock device being attachable to and detachable from the engaged member. The automatic lock device includes a hook member having a leading end portion in one end, the leading end portion to be engaged with the engaged member, and a drive part to which the other end of the hook member is coupled, the drive part turning the hook member to an upper side of a vehicle to engage the hook member with the engaged member. The hook member includes a buffering member that has elasticity and is abutted with the engaged member on the upper side of the vehicle in a state that the leading end portion is not engaged with the engaged member.

Abstract: A deck cover is openably provided at a vehicle-body rear portion positioned in back of a cabin. A top portion of a rear wheelhouse is provided at the vehicle-body rear portion. This top portion is configured to be displaced upward, relative to a vehicle-body rear end portion, such as a rear bumper or a rear end panel, by vehicle-body deformation caused by a vehicle rear collision. The deck cover is supported at a position of the vehicle-body rear portion which is located vertically above or in front of the top portion of the rear wheelhouse such that the deck cover is elevated in accordance with upward displacement of the top portion when the vehicle-body rear portion receives a rear-collision load.

Abstract: A profile strip arrangement includes a profile strip made of a profile material. The profile strip has a first connecting area configured to form a connection to an edge area of a windshield of a motor vehicle, and has a second connecting area configured to form a connection to a part that is adjacent to the windshield. The first connecting area has a lower connecting section which interacts with an inside of the edge area of the windshield and which has at least one free surface section that is free of the profile material. The at least one free surface section is formed by a surface of an additional element that is made of a material that differs from that of the profile strip.

Abstract: A vehicle door sealing assembly includes a door trim panel and an inner frame panel defining a door cavity, a window positioned proximate the door trim panel and the inner frame panel, a beltline seal disposed between the door trim and inner frame panels and in selective engagement with the window and a leak seal extending between the door trim panel and the beltline seal to divert a flow of air from the door cavity.

Abstract: A back door structure for an automobile is provided with a back door frame including a window frame, a window located at a vehicle outer side of the window frame, and a blind including a cover that covers a gap between the window and the window frame. The blind joins the window with the back door frame.

Abstract: There are provided a front weather strip provided between a first roof member and a second roof member, a rear weather strip provided between the second roof member and a third roof member, a roof-side weather strip provided at the second roof member, and a vertical weather strip. Plural partition walls which form the plural vertical flow passages are provided at the vertical weather strip, and a first flow passage for distributing water from the front weather strip to plural vertical flow passages of the vertical weather strip by way of the roof-side weather strip and a second flow passage for distributing water from the rear weather strip to at least one of plural vertical flow passages of the vertical weather strip are provided.

Abstract: There are provided a pillar attached to a vehicle-body side separately from a roof, a pillar-side weather strip provided at the pillar, a vehicle-body-side weather strip provided at a vehicle-body side of a lower portion of the pillar, and an engagement portion provided at a lower end portion of the pillar-side weather strip, the engagement portion being configured to engage from an inward side, in a vehicle width direction, of the vehicle-body-side weather strip. The vehicle-body-side weather strip comprises a guide portion which guides the engagement portion of the pillar-side weather strip inward and downward, an engaged portion positioned at a lower portion of the guide portion, and a wall portion which contacts a hanging piece provided at the lower end portion of the pillar-side weather strip from an outward side in the vehicle width direction.

Abstract: A battery unit includes a battery module, an upper frame member, a battery case, a battery cover, a sealing member, and a sealing bolt. The battery module is suspended from the upper frame member. The battery case has an opening to accommodate the battery module in the battery case. The battery cover is to cover the opening of the battery case. The sealing member is to seal a gap between the battery case and the battery cover. The sealing bolt is provided on the battery cover and secured to the upper frame member to connect the battery module and the battery cover via the upper frame member.

Abstract: A structure for fastening an engine mount is provided and includes an engine bracket that is mounted on an engine body coupled to a first end of a support bracket and a second end of the support bracket is connected to the engine mount. The support bracket has a bolt aperture that receives a center bolt protruding from an upper surface of the engine mount. The support bracket is placed on a mounting seat on the upper surface of the engine mount. The mounting seat is recessed downward from the upper surface of the engine mount. The height difference between an engine side portion and an engine mount side portion is reduced to a depth of the recession of the mounting seat. The rigidity and NVH performance are improved and a weight of the support bracket is reduced by omitting the damper.

Abstract: An engine mount structure capable of efficiently absorbing vibration input from an engine is provided. The engine mount structure includes a front mount device 20 which is connected to an engine 1 and a subframe 10 to suppress vibration transmission from the engine 1 side to the subframe 10 side. A dynamic damper 26 connected to the subframe 10 to suppress vibration of the subframe 10 is disposed in a hole portion 11b, and an opening of the hole portion 11b is formed in an upper surface portion 11a of a front subframe member component 11 located on a lower side of the front mount device 20.

Abstract: An electric drive unit for a hybrid drive, in particular for a vehicle, has an increased power output and degree of efficiency, while thermal loading as well as required installation space and manufacturing costs are minimized. The electric drive unit has an asynchronous machine with a rotor with a rotor cage, in particular a rotor cage which is formed with copper conductors. The asynchronous machine is formed with a stator having a shaft winding. The shaft winding is formed with a device for star-delta changeover. The rotor is formed with a rotor internal cooling device. A step-up gear mechanism is arranged in a power train between the rotor and the output element. There is also described a hybrid drive device with an electric drive unit, and a vehicle that has an electric drive unit and/or a hybrid drive device.

Abstract: A machine having a series electric drivetrain system includes an engine to provide mechanical energy to an electric generator, the electric generator able to convert the mechanical energy received from the engine into electrical energy, the electric generator including an input shaft extending through the electric generator, a rotor to rotate on the input shaft, and the input shaft is able to rotate an input gear, an idler gear, a pump drive gear, and a rotor gear, a motor to receive the electrical energy and to produce a rotational output, a single speed ratio direct drive to transfer the rotational output of the motor to a torque output to deliver to a drive shaft, and power electronics to control the electrical energy between the electric generator and the motor and to regulate the rotational output of the motor.

Abstract: A body panel system is provided for a motor vehicle. That body panel system includes a rear diffuser having a front air inlet. Further, that body panel system includes an underbody panel overlying the rear diffuser as well as a first air tunnel formed between the rear diffuser and the underbody panel. Additionally, that body panel system includes a rear valance, including a first vent opening for discharging air received from the first air tunnel. A related method for improving weight distribution and reducing overall weight of a rear differential cooling system is also provided.

Abstract: An active grille shutter arrangement having a modular frame. The active grille shutter arrangement includes a primary frame piece defining a width and height of an aperture of the modular frame, wherein in the primary frame piece has a motor housing, and upper frame portion having a first end and a second end, a lower frame portion having a first end and a second end and the motor housing extends between the upper frame portion and the lower frame portion. There is a plurality of secondary frame pieces. The modular frame of the active grille shutter arrangement is formed by the connection of the primary frame piece in the secondary frame piece, wherein the modular frame defines the aperture. The active grille shutter arrangement further includes a plurality of vanes rotatably positioned between the first end cap and the second end cap for controlling the amount of air flowing through the one or more apertures of the modular frame.

Abstract: There is provided a closing device for a filler port. This closing device for the filler port comprises a fuel passage forming portion configured to include a first engagement element; a first open-close mechanism configured to include a first cover that is opened toward an upstream side; and a second open-close mechanism configured to open and close a second opening and include a second cover that is opened toward the upstream side. The first open-close mechanism further comprises a disengagement portion located on the upstream side of a second engagement element when the second engagement element is engaged with the first engagement element, and configured to disengage the second engagement element from the first engagement element when receiving a force in a closing direction from the second cover.

Abstract: A torque distribution control system comprises a torsion unit for detecting traction on wheels of a primary driving axle that is continuously engaged with a drive source or a source of torque power. The amount of traction detected is converted to a signal with variable signal strength, the signal strength correlating to the amount of traction detected by the torsion unit. The signal strength capable of being adjusted automatically based on select parameters and/or manually based on a driver's input. And, in response to the signal, actuators engage and control operations of the vehicle such as the drive source, a braking system, and/or an axle clutch, with the level of engagement dependent upon the signal strength.

Abstract: The present invention provides a wireless power-supply control assembly 100 for wirelessly controlling a boat's main power supply. The assembly 100 comprises an enclosure assembly 110, wherein a latching relay 600 and a wireless-receiver relay 300 are mounted. The wireless receiver relay 300 is controlled by commands from a wireless transmitter and causes the latching relay 600 to connect or disconnect the boat's main power. In other embodiments, an ignition-sense relay 400 is also mounted within the enclosure and disconnects power to the wireless-receiver relay 300 when the boats ignition is on. In yet another embodiment, a manual override switch 200 is provided within the enclosure for bypassing the latching relay 600 and manually connecting the boat's power.

Abstract: A vehicle for carrying at least one passenger is disclosed. The vehicle comprises at least one support mechanism for carrying a passenger of the vehicle. Each support mechanism includes at least one sensor attached to the passenger for measuring parameters of the passenger in relation to an environment of the vehicle and at least one display device for the passenger for displaying a virtual environment to the passenger based on the measured parameters of the passenger. Furthermore, an amusement ride and a method for displaying a virtual environment in a vehicle are described.

Abstract: Aspects of the subject disclosure may include, for example, determining, by a system comprising a processor, a driver profile according to a driver identity for a driver of a vehicle, selecting a driver-specific enforcement scenario for the vehicle according to the driver profile and traffic enforcement information that is associated with a vehicle location, and presenting an in-vehicle alert to convey the driver-specific enforcement scenario to the driver. Other embodiments are disclosed.

Abstract: A control device includes a driving device for controlling a function of a vehicle, a display device for at least one piece of information relative to this function, and a receiving surface of the driving device and the display device. The control device is mounted translatably on the receiving surface and relative to the display device. The distance between the display device and the driving device is adjustable by moving the control device relative to said the display device.

Abstract: When such an abnormality that a battery voltage system voltage is brought into an overvoltage state during regenerative control of a motor occurs, a booster converter is shut down, a system main relay is brought into a non-arc state and turned off. Then, an engine is started when an operation of the engine is stopped. The booster converter is used to determine turning-off of the system main relay, and a battery-less travel is started thereafter. In this way, inconvenience that possibly occurs by starting the battery-less travel at a time when abnormality of the system main relay being stuck to be on occurs can be avoided.

Abstract: A vehicle includes: at least one rotary electric machine; an inverter that drives the rotary electric machine; a capacitor connected between a paired electric power lines that is connected to the inverter; and a control unit. When a vehicle collision is detected, the control unit executes first control for discharging electric charges stored in the capacitor by performing a switching operation of the inverter so as to prevent a flow of a q-axis current but cause a flow of a d-axis current to the rotary electric machine. The control unit stops the first control in a specified case and executes second control for performing the switching operation of the inverter so as to reduce the current flowing through the rotary electric machine to be lower than that during execution of the first control. The control unit executes third control for shutting down the inverter after execution of the second control.

Abstract: A work vehicle includes a propelling device, which consists of a pair of right and left front wheels and a pair of right and left rear wheels, an engine configured to drive one of the pair of front wheels and the pair of rear wheels, an electric motor configured to drive the other of the pair of front wheels and the pair of rear wheels, a battery configured to supply electric power to the electric motor, and a controller configured to control the electric motor. The controller performs regeneration control at constant current value to charge the battery with regenerative power of the electric motor at a constant current value regardless of rotation speed of the electric motor.

Abstract: An auxiliary power supply system for an electric motor of an electric vehicle, comprising supercapacitors to generate a first auxiliary power supply, batteries to generate a second auxiliary power supply, one single common bidirectional converter and a control logic, which is configured for: (i) supplying power to the electric motor by means of network power supply voltage and through the energy stored in the supercapacitors during the acceleration of the electric vehicle; (ii) charging the supercapacitors during the braking of the electric vehicle, harvesting kinetic energy; (iii) supplying power to the electric motor through the sole energy of the batteries in the absence of the network power supply voltage; and (iv) charging the batteries during the running at constant speed and the parking of the electric vehicle.

Abstract: A control device for a regenerative braking system having control electronics, the control electronics being designed, in consideration of at least one provided first variable with respect to a utilized coefficient of friction occurring in each case at the at least one wheel which may be regeneratively braked, to determine at least one preset variable with respect to at least one hydraulic minimum braking torque to be exerted on the at least one wheel which may be regeneratively braked, and, in consideration of at least the at least one determined preset variable, to determine the at least one setpoint variable.

Abstract: A utility vehicle includes an electric motor for driving a propelling device, a battery for supplying electric power to the electric motor, a temperature sensor configured to detect a temperature of the battery, a discharge current setting unit for setting an upper limit discharge current value based on the detected temperature detected by the temperature sensor, and a control unit for regulating discharge current of the battery within the upper limit discharge current value determined by the discharge current setting unit and for controlling driving of the electric motor.

Abstract: A power system for a locomotive. The power system includes an alternator, a first inverter system, a traction motor, a second inverter system and an auxiliary power unit. The first inverter system is coupled to the alternator and receives high voltage power from the alternator. The traction motor is coupled to the first inverter system receives high voltage power from the first inverter system. The second inverter system is also coupled to the alternator. The second inverter system steps down the high voltage power from the alternator. The auxiliary power unit is coupled to the second inverter system and receives the stepped down voltage power from the second inverter system.

Abstract: A rechargeable battery assembly for a vehicle has a housing and at least one metal-air rechargeable battery arranged in the housing. A filter device is arranged in the housing and conditions the inlet air of the at least one metal-air rechargeable battery such that the inlet air exhibits a predetermined air humidity. A flow deflecting device is provided that deflects the inlet air in the housing such that the filter device can be regenerated by waste heat of the at least one metal-air rechargeable battery.

Abstract: Exemplary embodiments are directed to bidirectional wireless power transfer using magnetic resonance in a coupling mode region between a charging base (CB) and a battery electric vehicle (BEV). For different configurations, the wireless power transfer can occur from the CB to the BEV and from the BEV to the CB.

Abstract: An electric power converter device for charging a battery in a vehicle may include a power factor converter, a DC-to-DC converter, and a bypass switch. The power factor converter receives a DC power from a power source and increases a voltage level of the DC power. The DC-to-DC converter is operable to decrease the voltage of the DC power from the power factor converter. The bypass switch is operable to electrically couple a power output device to one of the power factor converter or the DC-to-DC converter such that the electrical power provided by the power output device to the battery is based on one of a voltage output of the power factor converter or a voltage output of the DC-to-DC converter.

Abstract: This conversion system for converting electric energy is intended to be connected to a load, and includes the connection terminals, that are capable of being connected to the load, an electric energy converter, and a filter including at least one capacitor. This conversion system for converting electric energy additionally also includes a switching module configured in order to switch between a first configuration in which the filter is connected between the converter and the connection terminals and a second configuration in which the converter is connected directly to the connection terminals, with the filter being bypassed.

Abstract: A solar battery system includes a first electronic control unit disposed in a vehicle cabin of a vehicle, the first electronic control unit including a control unit repeating a charging period and a stop period during a period of time from ignition-off to ignition-on of the vehicle, the charging period being a period of charging the electric storage device with generated electric power of a solar battery, the stop period being a period of stopping the charging of the electric storage device with the generated electric power of the solar battery. The control unit sets a length of each of the charging periods shorter as the temperature in the vehicle cabin is higher at the time of starting each of the charging periods.

Abstract: A shuttle system employs an overhead track for selectively positioning an overhead EVSE for servicing one of multiple bays of a service facility. The EVSE is mounted to rails of the track system by tandem roller assemblies. The power cord which connects the EVSE to the power supply is coilable by roller assemblies which also slide on a rail and allow the EVSE to be connected to power regardless of the position along the rail.

Abstract: An electric storage device includes a first electric capacitor, a second electric capacitor, a converter, and a processor. The converter converts electric power transmitted between an external power system external to the electric storage device and at least one of the first electric capacitor and second electric capacitor. The processor is configured to control the converter to operate in at least one of a first mode and a second mode, the first electric capacitor continuously discharging electric power to the external power system in the first mode, the second electric capacitor discharging electric power to the external power system and being charged by the external power system, intermittently, to stabilize frequencies in the external power system in the second mode.

Abstract: A system for optimizing life of a battery pack in a plug-in vehicle includes sensors for measuring battery performance data, including an open-circuit voltage, charging current, and/or temperature of the battery pack, a GPS receiver, a user interface, and a controller. The controller executes a method to monitor degradation of the battery pack using the performance data, and determines driving and charging histories for an operator of the vehicle using the measured battery performance data and a position signal from the GPS receiver. The histories identify the days, hours, and locations at which the operator has driven the vehicle and charged the battery pack. The controller identifies a state of charge data bin missing performance data or containing old performance data. The controller then controls a charging operation of the battery pack via a charging control signal, and records the measured battery performance data for the identified SOC data bin.

Abstract: A battery charge display system includes a display assembly attached to a cover of a charge port, and a controller. The display assembly having a first indicator coupled to a first surface of the cover and a second indicator coupled to a second surface of the cover. The controller is configured to, in response to the cover being in an open position after vehicle deactivation, illuminate the display assembly such that the first and second indicators display a battery state of charge.

Abstract: According to one embodiment, an electricity storage control device includes a setting unit, and a control unit. The setting unit sets, for each time zone, a target state of charge (SOC) of electric energy to be stored in an electricity storage device in the time zone. The control unit controls at least charging or discharging of the electricity storage device based on the set target SOC for each time zone, a SOC detected from the electricity storage device, and a voltage of a supply destination of electric power from the electricity storage device.

Abstract: In a power control system for a green vehicle, whether a congested zone is present ahead is recognized using traffic information. When the congested zone is present, a remaining capacity of a main battery is recognized, and a required power amount required for passing through the congested zone is calculated. When the green vehicle reaches a power control point for the required power amount, charging of an auxiliary battery is stopped from the power control point to a start point of the congested zone, and the main battery is charged in a concentrated manner. When the green vehicle reaches the start point of the congested zone, the green vehicle is driven with power of the main battery. When the green vehicle reaches an end point of the congested zone, the auxiliary battery is charged.

Abstract: A vehicle adapted to improve cooling capacity and a carrying capacity of two types of batteries and implementing miniaturization of a system including the batteries, a battery unit and a battery carrying method of the vehicle are provided. The vehicle (1) includes a first power storage element (11), a second power storage element (12) with output weight density superior to that of the first power storage element (11), a motor (9) driven by at least one of electric powers of the first and second power storage elements (11) and (12), where the first and second power storage elements (11) and (12) are disposed outside a passenger compartment (5) and disposed under the passenger compartment (5) along a vertical direction, and the second power storage element (12) is disposed at a front end along a front and rear direction of the vehicle compared to the first power storage element (11).