Abstract: An electric or Hybrid vehicle is provided, the electric or Hybrid vehicle including: a battery configured to provide motive power to the vehicle; one or more electrical systems controlling one or more operations of the vehicle; a turbine configured to be exposed to airflow while the vehicle is in motion; a generator coupled to the turbine and configured to generate electricity in response to rotation of the turbine; and a control system configured to selectively control flow of electricity from the generator to the battery for charging the battery and to the one or more electrical systems for powering the one or more electrical systems.

Abstract: An LED lighting device includes a transparent cover member arranged at an exterior member or an interior member and covering an LED element and a light emitting surface of the LED element mounted on a substrate, and a light transmission member receiving emission light from the light emitting surface of the LED element at a light inlet end and operating as a light transmission path. The light transmission member is integrated with the LED element mounted on the substrate together with the cover member using a transparent resin by insertion molding.

Abstract: A vehicle display system is configured to display instantaneous power delivery of a powertrain of the vehicle as a proportion of the instantaneous power capability of the powertrain. A controller for the vehicle display system comprises an input configured to receive data relating to a condition indicative of a limitation on the instantaneous power delivery and/or power capability, a processor configured to determine from the data whether the condition meets at least one predetermined criterion and an output configured to output a signal to display the limitation in relation to the instantaneous power capability of the powertrain when the condition meets the at least one predetermined criterion.

Abstract: A spotlight modular assembly for providing external illumination to a charging inlet includes a first frame having a plurality of locking devices securing the spotlight modular assembly to the charging inlet, a second frame, and a circuit carrier and an illumination source electrically connected to the circuit carrier. The circuit carrier and the illumination source are encapsulated within the first frame and the second frame. A light of the illumination source comes out through the second frame. The spotlight modular assembly is removably attached to the charging inlet with the light of the illumination source directed toward the charging inlet.

Abstract: A battery life learning device including a learning section configured to obtain a learned prediction model for predicting a remaining life of a vehicle battery from time-series data of a deterioration characteristic of the vehicle battery, the learned prediction model being obtained by learning a prediction model from the time-series data of the deterioration characteristic of the vehicle battery based on learning data, the learning data including time-series data of the deterioration characteristic at a predetermined time point in the past of a vehicle battery for learning that has reached an end of life and the remaining life at the predetermined time point of the vehicle battery for learning.

Abstract: A steering wheel is provided. A steering wheel of a vehicle capable of autonomous driving includes a grip unit having a rim shape and held by a driver to steer the vehicle, an illumination unit provided in each of a left portion and a right portion of the grip unit in a circumferential direction of the grip unit, and a control unit configured to control the illumination unit to light up in a hold induction pattern for inducing holding by the driver according to a situation of the vehicle and a vehicle state pattern for guiding the driver through a state of the vehicle.

Abstract: A battery management apparatus configured to manage a battery to be reused, including an electronic control unit including a microprocessor and a memory connected to the microprocessor. The microprocessor is configured to perform acquiring a battery information including an information on a failure and repair history of the battery before the battery is reused, the memory is configured to store the battery information, and the microprocessor is configured to further perform determining a restriction imposed on the battery when the battery is reused, based on the battery information stored in the memory.

Abstract: A work vehicle includes: a chassis; an operator cab carried by the chassis; at least one fluid reservoir carried by the chassis; at least one fluid sensor disposed in the at least one fluid reservoir and configured to output a fluid level signal corresponding to a level of fluid in the at least one fluid reservoir; and a fluid display gauge carried by the chassis outside of the operator cab and operatively coupled to the at least one fluid sensor, the fluid display gauge including an activation region that is accessible from the ground. The fluid display gauge is configured to display the level of fluid in the at least one fluid reservoir upon the activation region being activated.

Abstract: A display control apparatus includes: an acquisition part that acquires usage situation information of a battery which stores electric power for traveling of a vehicle; an evaluation part that evaluates a state change amount of the battery based on the usage situation information acquired by the acquisition part; a specifying part that specifies one or more factors of a state change of the battery based on the usage situation information acquired by the acquisition part; and a display control part that allows a display part to display a first image indicating a ratio at which a factor of the state change contributes to the state change amount for each factor of the state change.

Abstract: This electric vehicle control device is provided with: an efficiency control unit which, during travel of the electric vehicle, in a state in which the battery is prone to deteriorate, increases the rate of consumption of the power charged in the battery by performing control for reducing the efficiency of the motor; a travelable distance calculation unit which calculates the travelable distance of the electric vehicle using the SOC of the battery and a travel coefficient; and a travel coefficient correction unit which, before and after the efficiency control unit performs control for reducing the efficiency of the motor, corrects the travel coefficient such that change in the travelable distance calculated by the travelable distance calculation unit is reduced.

Abstract: Provide an electromagnetic switch device for a starter, by which a winding fluctuation of a plurality of coils, of which wire diameters are different from each other, is prevented, which can be downsized and can be produced with a low cost. A bobbin, at which winding portions are separated by using a first flange portion which includes a first notch portion, second notch portions, and third notch portions, by which coils are led out, and a first separation wall and a second separation wall, which include the second notch portions and the third notch portions, by which coils are led out, is included, and a main aspiration holding coil, a sub-aspiration holding coil, and a resistance coil, of which wire diameters are different from each other, which are respectively wound around a first winding portion, a second winding portion, and a third winding portion, which are separated, are provided.

Abstract: A detection system includes a power generation element; a first outer cover body enveloping the power generation element; a second outer cover body located between the power generation element and the first outer cover body, and enveloping the power generation element; a first space section enclosed by the first outer cover body and the second outer cover body; a second space section enclosed by the second outer cover body; and a detector that detects a gas in the first space section.

Abstract: A method for evaluating the compression of the cylinders of an internal combustion engine of a vehicle having an electric starter motor and a respective starting battery, comprising: start capturing the battery voltage signal when the starter motor stars to rotate the internal-combustion engine so as to initiate operation of the engine under its own power; cease capturing the battery voltage signal when the engine enters operation under its own power; process the captured voltage signal for the location of local minimums; calculate the time difference between consecutive local minimums; detect if there is a variation of time between the calculated differences higher than a predetermined threshold between any said calculated time differences; and, if there is such variation, signal a potential engine malfunction. Also provided is a device for accomplishing the foregoing.

Abstract: This disclosure is directed to customizable charge status indicator systems for electrified vehicle charge port assemblies. Exemplary charge status indicator systems may include a charge port lighting module, and a human machine interface (HMI) that includes various user interfaces configured for receiving inputs for customizing different lighting effects that can be emitted by the charge port lighting module. The charge status indicator systems may further include a controller operably coupled to both the charge port lighting module and the HMI and configured for commanding the charge port lighting module to emit customized lighting effects in response to receiving input signals from the HMI.

Abstract: The invention relates to a method for operating a charging device for charging an electric energy storage device from a first charge state to a second charge state. The first charge state is lower than the second charge state, and the charging device is connected to an interface. The charging device communicates with the energy storage device and ascertains the charge state thereof. In an additional step, the charging device obtains the efficiency characteristic field of the electric energy storage device and the efficiency characteristic field of the charging device. The invention relates to a method for operating a charging device for charging an electric energy storage device from a first charge state to a second charge state. The first charge state is lower than the second charge state, and the charging device is connected to an interface. The charging device communicates with the energy storage device and ascertains the charge state thereof.

Abstract: Safe and secure charging of a vehicle is disclosed. For one embodiment, a system monitors data communicated over a communications network of the motor vehicle. The system determines a current charging stage from a number of predetermined charging stages for the motor vehicle. The system analyzes the monitored data based on the determined current charging stage for an unexpected message. The system detects an unexpected message in the monitored data and performs a corrective action based on the detecting of the unexpected message.

Abstract: A diagnostic service is selectively started at opportune times, such as when the electrical vehicle is initially plugged in. When the electrical vehicle is turned off, there may not be any messages being sent on the communication bus since most vehicle electronic controllers are disabled to conserve power. But, when someone plugs in a charger, there is a surge of bus traffic for a short period of time. The system parses through the bus traffic and looks for a particular communication bus address. The presence of this address can be used as an indicator for an opportune time to start the diagnostic service to confirm whether the electric vehicle is charging or not and to log the state of charge of the electric vehicle.

Abstract: A starter battery with a total battery voltage exceeding a supply voltage requirement of an electrical system. An alternator provides a charging voltage that corresponds with the supply voltage requirement of the electrical system. A total battery voltage equal to the sum of cell voltages exceeds the supply voltage requirement of the electrical system. A step-down voltage regulator reduces the total battery voltage to correspond with the supply voltage requirement and a boost voltage regulator increases the charging voltage from the alternator when charging the starter battery to the total battery voltage. When detecting a degraded cell, the step-down voltage regulator continues to regulate the total battery voltage to correspond with the supply voltage requirement after the cell has degraded and the boost voltage regulator is bypassed when charging the starter battery to no longer increase the charging voltage from the alternator when charging the starter battery.

Abstract: A charging cable identification system is provided for a vehicle driven at least partially electrically, wherein the vehicle has an energy store that can be connected to an electrical energy source by a charging cable. The charging cable system has a control unit that is configured to enable or prevent the starting of the vehicle motor. The control unit is also configured to detect, prior to every event that is or can be predetermined, whether the charging cable is in the vehicle, and if the control unit detects that the charging cable is not in the vehicle, the control unit prevents the vehicle motor from starting.

Abstract: This disclosure describes exemplary electrified vehicle charging systems for charging battery packs. An exemplary charging system includes a visual indicator (e.g., pictogram, text, or both) located on-board the vehicle that can be automatically illuminated once the battery pack has been charged to a predefined minimum state of charge (SOC) threshold. The visual indicator communicates charging status messages to other electrified vehicle users, and once illuminated, provides an intuitive indication to the other vehicle users that the electrified vehicle that is currently on-plug has received a sufficient amount of charge and therefore may be unplugged from a charging station. The visual indicator therefore facilitates a courtesy hand-off of charging station components from one electrified vehicle user to another.

Abstract: A hybrid vehicle includes an engine, a fuel tank, a motor, a battery, a charger, and a notification mechanism. The battery is configured to supply electric power to the motor. The charger is configured to carry out external charging that charges the battery by use of electric power from an external power source. The notification mechanism is configured to notify, to an outside of the vehicle, information on a use index indicative of a degree of use of external charging in a predetermined time period.

Abstract: A charging system for an electrified vehicle includes a battery pack, a charging component in charging connection with the battery pack, a visual indicator on the charging component, and a control module configured to illuminate the visual indicator in response to reaching a predefined state of charge (SOC) threshold of the battery pack. The visual indicator can indicate that the SOC of the battery pack has reached a level that is acceptable for unplugging the electrified vehicle from a charging station.

Abstract: A light control apparatus for controlling brightness of a lighting unit indicating a charging state of a battery of a vehicle includes: an interface configured to communicate with an external illuminance detector; a memory configured to store illuminance information corresponding to a first reference illuminance and a second reference illuminance lower than the first reference illuminance and to store brightness information set based on the first reference illuminance and the second reference illuminance; a controller configured to receive the illuminance information via the interface, to set the brightness information based on the first reference illuminance and the second reference illuminance, and to control the brightness of the lighting unit based on the set brightness information; and a driver configured to regulate power of the lighting unit in response to a command of the controller.

Abstract: A hybrid vehicle includes an engine, a fuel tank, a motor, a battery, a charger, and a notification mechanism. The battery is configured to supply electric power to the motor. The charger is configured to carry out external charging that charges the battery by use of electric power from an external power source. The notification mechanism is configured to notify, to an outside of the vehicle, information on a use index indicative of a degree of use of external charging in a predetermined time period.

Abstract: The present disclosure provides a system and a method for inspecting an assembled condition of an alternator capable of inspecting a driving condition using a smart box monitoring sensor data received from an ECU of a vehicle and then determining whether the assembled condition of the alternator is bad. A system for inspecting an assembled condition of an alternator includes: a smart box configured to receive driving data of a vehicle from an ECU and determine whether the assembled condition of the alternator is bad based on the driving data of the vehicle; and a server configured to receive result data depending on whether the assembled condition of the alternator is bad from the smart box.

Abstract: A switch monitoring circuit has an external input terminal connected to a switch, a voltage applying unit that applies a driving voltage to the external input terminal, a voltage detecting unit that detects a change in the voltage at the external input terminal, a control unit connected to the voltage applying unit and voltage detecting unit, and a charge storage unit connected to the external input terminal and voltage applying unit. The charge storage unit has a voltage applying terminal to which the driving voltage is applied, a first resistive element, one of the terminals of which is connected to the external input terminal and the other of the terminals of which is connected to the voltage applying terminal, and a capacitive element, one of the terminals of which is connected to the voltage applying terminal and the other of the terminals of which is grounded. The capacitive element performs charging from the voltage applying terminal and discharging to the voltage applying terminal.

Abstract: An electric vehicle management system which controls a charging amount for an electric vehicle by way of peak shift, and an on-board unit used for the electric vehicle management system are provided. Thereby, the on-board unit mounted on the electric vehicle detects a current location, and an electric vehicle management center provided on a network manages a charging schedule created in advance. Propriety of a charging operation at a current time is checked via communications between them. Charging of the electric vehicle is managed based on the charging schedule by notifying a driver of the check result through a display of the on-board unit.

Abstract: An example method includes operating an electric vehicle in an electric mode when a speed of the electric vehicle is at or below a threshold speed, and operating the electric vehicle in a hybrid mode when the speed of the electric vehicle is above the threshold speed. The threshold speed is an operator-adjustable threshold speed. Another example method includes operating an electric vehicle in an electric mode when a state of charge of a battery of the electric vehicle is at a threshold state of charge, and operating the electric vehicle in a hybrid mode when the state of charge of the battery is at or below the threshold state of charge.

Abstract: An indicator apparatus for providing a status indicator to visibly indicate state of charge information of an electric vehicle is disclosed. The indicator apparatus may be an indicator plate including a first end, a second end opposite the first end, and an indicator positioned between the first and second ends. The indicator may provide an indication of a status of a battery of the electric vehicle by illuminating a portion of the indicator plate based on status information of the battery. The indicator apparatus may further comprise a power port coupled to the electric vehicle for receiving power from the electric vehicle to the illuminated portion of the indicator plate. The illuminated portion may be illuminated based on vehicle diagnostic data received from the electric vehicle and may be visible from outside the electric vehicle.

Abstract: The disclosed embodiments provide a system that monitors a battery in a portable electronic device. During operation, the system monitors a state of charge of the battery while the battery is powering the portable electronic device. Next, when the state of charge of the battery reaches a predetermined reserve capacity, the system monitors a voltage of the battery. Then, when the monitored voltage of the battery reaches a predetermined termination voltage, the system puts the portable electronic device into a low power usage state.

Abstract: A vehicular indicator device for a hybrid vehicle which is provided with vehicle drive power sources in the form of an engine and an electric motor and which is driven in one of a plurality of vehicle drive modes including an EV drive mode, a series HV drive mode and a parallel HV drive mode that is automatically selected according to a vehicle drive power, said indicator device being configured to indicate the selected vehicle drive mode and said vehicle drive power, the vehicular indicator device being configured to indicate a running state of the hybrid vehicle as represented by said vehicle drive power and said selected vehicle drive mode, in a two-dimensional coordinate system on a display screen, which coordinate system is defined by said vehicle drive power and said selected vehicle drive mode.

Abstract: An external power supply apparatus of an electric vehicle, includes: a battery; an inverter configured to convert DC power of the battery to AC power and configured to output the AC power; a first outlet socket disposed in the electric vehicle and through which an output of the inverter is supplied; a relay connected downstream from the first outlet socket as viewed from the inverter; a charging port connected downstream from the relay as viewed from the inverter and exposed to the outside of the electric vehicle; an adapter including a second outlet socket and being to be connected to the charging port; and, when it is detected that the adapter is connected to the charging port, a controlling unit setting the relay to an ON state to allow the output of the inverter to be supplied through the charging port.

Abstract: The signalling method is implemented in an electronic power system (6) of a multiple-phase alternator. The system (6) is of the type comprising a set of rectifiers (5) capable of rectifying the voltage of phases (Ph1, Ph2, Ph3, Ph4, Ph5, Ph6) produced by the alternator, and a control assembly (2, 3) capable of controlling an excitation current from the alternator, of monitoring the conformity of at least one current characteristic of at least one (Ph) of the voltage of phases (Ph1, Ph2, Ph3, Ph4, Ph5, Ph6) in relation to a nominal characteristic, and of signalling any non conformity. In accordance to the method of the invention, the non conformity of at least one current characteristic of at least one (Ph) of the voltage of phases (Ph1, Ph2, Ph3, Ph4, Ph5, Ph6) is simulated in case of impaired function of at least one of the rectifiers (5).

Abstract: A mobile terminal may include a plurality of antennas to receive radio waves, a receiver circuit to receive power of the radio waves received by the plurality of antennas using a diversity technique, and a charging unit to charge a rechargeable battery coupled to the mobile terminal by the power of the radio waves received by the receiver circuit.

Abstract: A vehicle having an item detection system is provided having at least one indicator for selectively emitting an alarm when activated, a vehicle alarm control module, at least one radio frequency identification (“RFID”) tag, and a radio frequency (“RF”) interrogator. The vehicle alarm control module is in communication with the at least one indicator and includes control logic for sending an activation data signal to the at least one indicator to selectively activate the at least one indicator. The RFID tag is configured for receiving a query RF signal and transmitting a reply RF signal upon receipt of the query RF signal. The RF interrogator is in communication with the vehicle alarm and is located within a specified distance of the RFID tag. The RF interrogator has a processor, and includes control logic for transmitting the query RF signal to the RFID tag.

Abstract: A system and method for remote control of and notification by an electric vehicle supply equipment (EVSE). The system including a remote device, such as a smart phone, having a software configured to remotely control the EVSE and remotely retrieve and receive information from the EVSE. The smart phone may identify and connect to a communication network, automatically identify the EVSE, connect to the EVSE, and send the EVSE instructions for various functions of the EVSE, including charging, vehicle control, and reporting functions. The EVSE may execute the instructions received and return a confirmation to the remote device. The remote device may present the confirmation to a user.

Abstract: A computer-implemented method includes receiving a request for improving vehicular energy conservation. The method further includes responsively providing at least one action to a vehicle computing system, based at least in part on received vehicle data. Also, the method includes receiving data relating to a change in vehicle energy efficiency resulting from implementation of the action. The method additionally includes analyzing the received data and action along with data resulting from similar actions to determine a generalized effect of the action.

Abstract: A monitoring device (20) of a vehicle wheel (11) is configured for detecting and transmitting, by a wireless connection, information relating to at least one characteristic quantity of the status of the wheel (11), such as the inflating pressure of a tire thereof. The device (20) has a casing (21-22) housing a circuit (30) adapted to transmit said information, the casing (21-22) being designed for coupling to an end portion (3a) of electrically conductive body (3) of a tire valve (2) of the wheel (11). The casing (21-22) includes a casing body (21) integrating interconnection means (28, 29, 40) prearranged to obtain both an electric connection of the circuit (30) to the end portion (3a) of the electrically conductive body (3) of the valve (2; 2?; 2?), and a mechanical coupling of the casing (21-22) to the end portion (3a) of the electrically conductive body (3) of the valve (2; 2?; 2?).

Abstract: An electric vehicle (EV) charger system, includes an EV charger, the EV charger having a distance display disposed at a top portion of the EV charger, the EV charger configured to display a non-alphanumeric representation of a plurality of modes of the EV charger on the distance display for viewing by an observer remote from the EV charger, and a near display disposed at a position on the EV charger that is below the distance display, the EV charger configured to display alphanumeric information on the near display for viewing by a user proximal to the EV charger.

Abstract: An alarm system for a vehicle charge cord is provided. The alarm system has an armed state and a disarmed state. The alarm system includes a battery, a charge cord sensor, a battery state estimator (“BSE”) module, and an interface module. The battery has state of charge (“SOC”), and is rechargeable to a predetermined level of charge. The charge cord sensor is configured to detect if the vehicle charge cord is connected to or disconnected from a vehicle. The BSE module is configured to monitor the SOC of the rechargeable battery and determine if the battery is charged to the predetermined level of charge. The interface module is in communication with the charge cord sensor and the BSE module. The interface module is configured to switch the alarm system from the armed state to the disarmed state.

Abstract: An operating state display device for a vehicle includes a display portion that displays an energy transmission state of the vehicle. A display similar to what is shown when no energy is being transmitted to the axle is shown, regardless of the energy transmission state, when two conditions that the vehicle is stopped and that a brake operation is being performed are satisfied.

Abstract: In a method for determining and displaying a remaining range of a motor vehicle that can be driven electrically, an instantaneous remaining range of the motor vehicle that can be attained by purely electric driving of the motor vehicle is determined continuously and a display of the determined remaining range on a display unit is controlled, wherein a range preservation mode is activated with the control unit; and the display unit is activated with the control unit. A remaining range determined before the activation of the range preservation mode is displayed with the display unit while the range preservation mode is activated. A device for determining and displaying a remaining range of a motor vehicle that can be driven electrically and a motor vehicle having a device for determining and displaying a remaining range are also disclosed.

Abstract: An early warning and monitoring system is disclosed for battery cells and battery packs. During normal cycling of a battery, surface temperature, voltage, current and impedance may be monitored to determine if abnormalities exist in the battery and/or battery structure. The abnormalities may be advantageously detected using battery temperature characteristics, where the characteristics are subject to rule-based processing to determine impending battery failure. By receiving advance notice of failure, a warning signal may be transmitted to provide notice and/or allow corrective action to be taken.

Abstract: A computer implemented method includes detecting a vehicle state for which a user is to be notified. The method also includes sending a notification for a user regarding the vehicle state. The method further includes receiving a response that a do not disturb mode is enabled for the user. The method additionally includes queuing the notification for later delivery. The method also includes re-sending the notification for the user at a later point in time than when an original notification was sent.

Abstract: A system and method is provided for preventing cable theft in electric vehicle supply equipment (EVSE). A sensor may be configured to sense a short between at least two components of a cable in the EVSE. A processor may be configured to determine that the cable is being cut in response to the sensing. The processor may be further configured to generate an alert in response to a determination that the cable is being cut.

Abstract: A system for an electric vehicle for authorizing the utilization of a reserve charge portion of a battery of the electric vehicle for powering the electric vehicle. The authorization system may include a remote device that communicates with the electric vehicle via a telematic link. Upon receipt of one or more data from the electric vehicle (e.g., reserve charge amount of the battery, recharge locations, warranty waiver information, billing information, previous authorization information, etc.) the remote device transmits an authorization signal to the electric vehicle for using at least part of the reserve charge portion of the battery based upon the data. The authorization system may incorporate live personnel for determining whether to authorize the electric vehicle or such authorization may be determined automatically by a processor of the remote device. The authorization system may be entirely local to the electric vehicle such that no remote device is needed.

Abstract: A charging state displaying device includes a casing, a board, a plurality of light sources, and display units. The casing includes a light blocking part. The board is mounted on the light blocking part and is accommodated in the casing. The light sources are disposed on the board so as to be separated by the board. The display units have light-permeability and are provided at positions of the casing corresponding to the light sources respectively. The board is configured to prevent leakage and mixture of lights emitted from the light sources in a cooperation with the light blocking part.

Abstract: A charged-amount display part displays a battery charge rate of an entire battery pack according to kinds of charge sources. An example of displaying the battery charge rate in the form of a bar chart is shown. A speed display part displays a vehicle speed of a running electric vehicle. The running cost display part displays a running cost calculated based on consumed electric power of the battery.

Abstract: A display apparatus includes a display plane and a control unit. The display plane configured to display a first display portion that shows a locomotion region in the first locomotion mode in a display region based on the output request and a future locomotion distance of the vehicle and a second display portion that shows a locomotion region in the second locomotion mode next to the first display portion in the display region. The control unit configured to control an image displayed in the display plane. The control unit changes a border between the first display portion and the second display portion based on the future locomotion distance in accordance with an estimation result of displacement of a switching point between the first locomotion mode and the second locomotion mode.

Abstract: The invention relates to a device (1) for remotely identifying a motor vehicle (2), including means (3) for remotely communicating with the associated vehicle (2). The device comprises means (4) for querying the state of charge of at least one vehicle battery and means (6) for receiving said state of charge.