Abstract: Autonomous vehicle fleet management systems are provided herein. An example method includes receiving, via a control module of a first electric vehicle, trip characteristics data associated with a second electric vehicle. The trip characteristics data includes information such as vehicle location, a trip destination, and a route plan associated with the second electric vehicle. The control module or a connected control server selects a charging station for recharging the first electric vehicle based at least in part on the trip characteristics data and at least one route optimization option associated with the first electric vehicle. The example method further includes determining a travel route to the charging station and navigating the first electric vehicle to the charging station along the travel route using an autonomous vehicle navigation system associated with the control module.

Abstract: A method for transporting a plurality of articles with a transportation container that can be carried in a transport container of one of a plurality of robots. The plurality of articles is placed in the transportation container. The transportation container is placed in a pickup location at a first location. A robot is navigated to the first location and the transportation container is autonomously moved from the pickup location to the transport container of the robot. The robot is navigated over an outdoor transportation network to a second location and the transportation container is autonomously moved from the transport container to a recipient location at the second location.

Abstract: A control apparatus for a hybrid vehicle is applied to a hybrid vehicle capable of running in EV mode and configured to allow external charging. The control apparatus comprises a controller configured to acquire an external charging time at which charging of the battery by electrical power supplied from outside the vehicle becomes possible with the hybrid vehicle staying at a predetermined charging site and execute generation control to control electrical power generation by the electric motor using an internal combustion engine on the basis of a remaining time defined as the length of time from the current time to the time of the next external charging time, when an SOC value becomes equal to or smaller than a predetermined lower threshold. The control apparatus as above can reduce the degree of dependence on the internal combustion engine as much as possible.

Abstract: A vehicle control apparatus includes a detection section, a control section. The detection section is configured to detect vehicle information including a vehicle speed of a vehicle driven by an electric motor and drive torque of the electric motor. The control section is configured to moderate a rate of increase in the drive torque at the time of acceleration with respect to a rate of increase set in advance on the basis of a detection result of the detection section on condition that the vehicle speed of the vehicle is less than or equal to a predetermined speed and the drive torque is greater than or equal to a predetermined threshold.

Abstract: Systems and methods are disclosed for providing predictive distance-to-empty (DTE) assessments for vehicles that can include electric, gas, or hybrid vehicles. An example method includes determining a plurality of learned parameters of vehicle operation of a vehicle based on a plurality of energy consumption parameters of the vehicle; determining a plurality of predictive parameters of vehicle operation of the vehicle selected from any combination of weather data or navigation data, the navigation data being determined relative to a planned route and applying a DTE function for the energy source, the DTE function utilizing the plurality of learned parameters of vehicle operation, and the plurality of predictive parameters of vehicle operation of the vehicle, based on a current capacity of the energy source to determine a DTE for the vehicle.

Abstract: A method for torque split arbitration in a vehicle includes identifying at least one route characteristic of a portion of a route being traversed by the vehicle. The method further includes determining a target torque split based on the at least one route characteristics. The method further includes generating a first output torque demand that corresponds to a product of a first portion of a target torque demand to be provided by a first propulsion unit and a ratio of a total propulsion system torque demand and the target torque demand. The method further includes generating a second output torque demand based on the first output torque demand.

Abstract: A control system for a hybrid vehicle configured to reduce fuel consumption. A controller is configured to execute a first determination to determine that a required power is less than a reference power, and a second determination to determine that a condition to start an engine is satisfied. If the answers of the first determination and the second determination are YES, a target power of the engine is set to a predetermined power which is greater than the required power, and which can be generated by consuming smaller amount of fuel. Then, the generator is driven by the engine being operated to achieve the predetermined power, and an electric power generated by the generator to be accumulated in a battery is set to a value calculated based on a difference between the target power and the required power.

Abstract: An eco-friendly vehicle using a charging control method improves the wireless charging efficiency and efficiently manages the charge/discharge of a battery of the vehicle. The eco-friendly vehicle includes: a wireless power receiver to wirelessly receive an electric power from an external charging device; a memory to store state information of each of a plurality of battery cells; and a controller to control a charging order of each of the plurality of battery cells by using the state information stored in the memory when an engine of the vehicle is in an off state.

Abstract: Through-the-road (TTR) hybrid designs using control strategies such as an equivalent consumption minimization strategy (ECMS) or an adaptive ECMS are implemented at the supplemental torque delivering electrically-powered drive axle (or axles) in a manner that follows operational parameters or computationally estimates states of the primary drivetrain and/or fuel-fed engine, but does not itself participate in control of the fuel-fed engine or primary drivetrain. BSFC type data particular to the paired-with fuel-fed engine allows an ECMS implementation (or other similar control strategy) to adapt to efficiency curves for the particular fuel-fed engine and to improve overall efficiencies of the TTR hybrid configuration.

Abstract: An apparatus of incorporating a non-isolated charger and a DC converter, may include a non-isolated charger including a non-isolated converter converting a level of input voltage and outputting converted voltage to a battery; and a DC converter including a first switch selectively making an electrical connection to a connection node of the non-isolated converter and the battery and a primary side circuit including at least some of switching elements included in the non-isolated converter and converting a level of voltage of the battery transmitted by the primary side circuit and outputting converted voltage.

Abstract: In a control device for a vehicle, the vehicle is configured to charge an electric power storage device with an electric power supplied from a charger. The control device includes an input and output circuit and a control circuit. The input and output circuit is configured to input predetermined signal and output the predetermined signal. The control circuit is configured to prepare for charging of the electric power storage device by controlling transmission and reception of signals through the input and output circuit according to a predefined communication sequence. The control circuit is configured to proceed with the predefined communication sequence by transmitting the second signal to the charger even when the vehicle does not receive the first signal at the predetermined timing.

Abstract: The disclosed principles provide for acceleration systems and related methods for use with power assisted vehicles, such as E-Bikes. Disclosed systems and methods provide for a quick ramp up feature that accelerates the vehicle at a predetermined acceleration rate, but then smoothly integrates into the target cruising speed of the current speed mode by incrementally reducing the rate of acceleration as the vehicle approaches the target cruising speed, thereby reducing or eliminating any jolt or jerky feeling felt during the transition from acceleration to target cruising speed.

Abstract: In an electrical traction drive for a vehicle comprising at least two individual wheel drives that are to be controlled independently of each other, the drives are able to be operated redundantly in order for an emergency operating function to be implemented.

Abstract: An emergency electric power supply system including: an electric power detection unit configured to detect that electric power supply from a first electric power system has stopped; a plurality of charge and discharge devices which cause electric power to be transferred between a second electric power system, which is an electric power system different from the first electric power system and is connectable to a plurality of charge and discharge entities including an electric vehicle, and the charge and discharge entities; and a control unit controls at least some of the plurality of charge and discharge devices to supply electric power from the second electric power system to the electric vehicle when the electric power detection unit detects that the electric power supply from the first electric power system has stopped.

Abstract: A brake control device for a vehicle includes: a motor connected to wheels; a hydraulic brake that generates a friction braking force based on frictional contact with a brake rotor that integrally rotates with the wheels; a controller that performs coordination control of regenerative brake control, in which a regenerative power generation is performed by the motor on a basis of rotation of the wheels to apply a regenerative braking force to the wheels, and hydraulic brake control, in which the hydraulic brake is operated; and a battery that exchanges power with the motor. Further, in a case where a temperature of the brake rotor is higher than a predetermined temperature when input to the battery is restricted in a state where there is a deceleration request, the controller reduces the friction braking force, and performs the regenerative brake control while power is consumed by an electric device.

Abstract: A computing device-implemented method comprises receiving information representative of a state of charge of an energy storage device of a vehicle that includes an alternative fuel propulsion system, receiving information representative of a performance measure of the vehicle for a period of time, receiving information representative of a position of an accelerator pedal of the vehicle, determining an amount of torque required by a second propulsion system to send to a driveshaft of the vehicle from the received information representative of a position of a pedal, determining an amount of torque assistance required to send to a driveshaft of the vehicle from the alternative fuel propulsion system included in the vehicle from the information representative of a performance measure of the vehicle and the information representative of the state of charge, and adjusting an amount of torque required by a second propulsion system using the determined torque assistance.

Abstract: A system for estimating or predicting energy consumption for a trip of a personal vehicle includes a user facing portion and a back-end portion. The user facing portion includes a display and a user interface hosting a real-time application configured to receive travel information and present a received energy distribution via the display. The back-end portion includes a back-end database and an energy processor configured to access the back-end database. The energy processor includes a demand model module configured to produce a set of possible velocity histories and a set of possible ambient temperatures. A vehicle model module is configured to receive the velocity histories and ambient temperatures to provide the energy distribution or a probabilistic prediction of future energy consumption to the user facing portion.

Abstract: A method for operating a vehicle that may be automatically stopped and started is described. In one example, the method includes starting an engine via expansion stroke combustion in response to a request to urgently start the engine. In addition, the method includes adjusting a position of a compression relief valve in response to a predicted urgency of an engine start.

Abstract: Systems and methods for operating a vehicle driveline that includes an engine and an electric machine are described. In one example, an amount of electrical power that is available to electrical consumers that are electrically coupled to a high voltage bus is adjusted responsive to a temperature of a catalyst for the purpose of reducing engine emissions.

Abstract: A method for operating a hybrid vehicle having a prime mover including an internal combustion engine and an electric machine, the vehicle further having a transmission connected between the prime mover and a driven end and including multiple shift elements, the vehicle further having a separating clutch connected between the internal combustion engine and the electric machine, and a starting component which is provided by a separate launch clutch or by a shift element of the transmission. The method includes monitoring a rotational speed of one of the internal combustion engine, the electric machine, the transmission, or the driven end during travel with the internal combustion engine running and the separating clutch engaged. The method further includes determining an increase in driving resistance, and decoupling the internal combustion engine when the monitored rotational speed falls below or reaches a first limiting value by disengaging the separating clutch.

Abstract: An apparatus and method for diagnosing whether a current sensor provided to a battery pack is normal. The apparatus includes: a voltage measuring unit configured to measure a both-end voltage of the cell assembly; a current measuring unit configured to measure a current flowing through the charging and discharging path; and a processor configured to diagnose the current sensor based on a change value of a voltage-based charged charge amount and a change value of a current-based charged charge amount.

Abstract: The invention relates to a method for controlling a drive system with at least two drive units (20), each of which is paired with at least one control unit (22), wherein —a total target torque (30) is calculated by means of a master control unit (22a), —the total target torque (30) is divided into respective individual target torques (32) for each of the drive units (20) by the master control unit (22a), and —the drive units (20) are actuated by the paired control units (22) on the basis of the corresponding individual target torques (32). The invention is characterized in that the threshold torques (34) corresponding to the drive units (20) are ascertained and taken into consideration by the master control unit (22a) when dividing the total target torque (30).

Abstract: An engine control device for an electric vehicle having an electrical rotating machine, includes: an engine control unit determining an engine rotational speed and an engine torque such that a particulate number of particulate matter per unit gas quantity that the engine releases into an atmosphere becomes equal to or less than a target value having been set in association with a warm-up state of the engine, the engine rotational speed, and the engine torque, and such that the engine rotational speed when a vehicle speed is less than a threshold value is lower than the engine rotational speed when the vehicle speed is equal to or more than the threshold value, and controlling the engine based on the determined engine rotational speed and the engine torque.

Abstract: A vehicle and method for controlling a vehicle having a traction battery and an internal combustion engine include adapting a power limitation of the internal combustion engine by sensing a currently supplied power level of the internal combustion engine and a current velocity of the vehicle, sensing an ambient temperature of the vehicle and determining an associated ambient-temperature-related weighting factor, sensing an ambient air pressure and determining an associated air-pressure-related weighting factor, determining a thermal load indicator as a function of a ratio of the sensed currently supplied power and the sensed current velocity as well as of the ambient-temperature-related weighting factor, the air-pressure-related weighting factor, and a vehicle-bodywork-related weighting factor, and limiting a maximum supplied power level of the internal combustion engine as a function of the determined thermal load indicator.

Abstract: An apparatus for providing a route of an electric vehicle and a method thereof are provided. The apparatus includes a processor that estimates a weight of a vehicle when guiding a user along a route to a destination, calculates a driving load for each route section using the estimated weight of the vehicle, calculates a driving force using motor torque, and determines a probability of hill climbing for each route section using the driving force and the driving load and a display that is controlled by the processor to display at least one of a driving load for each route section or a probability of hill climbing according to a driving force for each route section.

Abstract: A travel control device includes: a first planning unit that, in response to the automobile being predicted to enter a restricted section in which a traveling condition is restricted, plans a traveling mode satisfying the restricted traveling condition as a first traveling mode in the restricted section; a second planning unit that plans a second traveling mode in a preparation section so as to perform the first traveling mode planned by the first planning unit, the preparation section being defined as a section extending to the restricted section before the automobile enters the restricted section, the second traveling mode adjusting a value of at least one parameter related to the first traveling mode to a preparation value appropriate for the first traveling mode; a control unit that controls travel of the automobile in the preparation section so as to perform the second traveling mode planned by the second planning unit.

Abstract: A train control system uses machine learning for implementing handovers between centralized and distributed train control models. A machine learning engine receives training data from a data acquisition hub, receives a centralized train control model from a centralized virtual system modeling engine, and receives an edge-based train control model from an edge-based virtual system modeling engine. The machine learning engine trains a learning system using the training data to enable the machine learning engine to predict when a locomotive of the train will enter a geo-fence where communication between the edge-based computer processing system and the centralized computer processing system will be inhibited.

Abstract: A power supply charging system comprising: a) a first power cell having electrical energy stored therein; b) a second power cell having electrical energy stored therein, wherein the first power cell and the second power cell are adapted to not be in a discharging mode or a charging mode simultaneously; c) a third power cell in electrical communication with the first power cell and the second power cell, wherein the third power cell is adapted to operably supply power to the first power cell when in the charging mode or the second power cell when in the charging mode; and d) a control system which is adapted to alternate the power being supplied from the third power cell to the first power cell while in the charging mode and the second power cell which in the charging mode based on an occurrence of a pre-determined condition.

Abstract: An electric vehicle, and a system and method for charging the electric vehicle. The system includes a user locating system and a processor. The user locating system is configured to determine a location of the user. The processor is configured to charge the vehicle at a first charging rate and determine a location of a user of the vehicle with respect to the vehicle. The processor adjusts the charging of the vehicle from the first charging rate to a second charging rate when the location of the user is within a selected distance from the vehicle.

Abstract: A vehicle includes: a motor generator; an engine having a forced induction device; and a HV-ECU. An operation region of the engine includes a PM generating region in which an amount of particulate matters included in exhaust gas of the engine is more than a predetermined amount due to a load of the engine being abruptly increased during boosting by the forced induction device. The PM generating region is a low-rotation and high-torque region. When assistance by the motor generator is sufficiently obtained and the engine is operated in the PM generating region, the HV-ECU restricts an increasing rate of the torque of the engine to be less than or equal to an upper limit rate. The HV-ECU complements, by the torque of the motor generator, the torque of the engine restricted by restricting the increasing rate of the torque of the engine.

Abstract: A control device distributes electric power from a battery to an electric power feed terminal when the remaining level of a battery is equal to or higher than a predetermined value with an ignition off. Therefore, an electronic component can be charged after being connected to the electric power feed terminal, even with the ignition off. When the remaining level of the battery is lower than the predetermined value, the distribution of electric power from the battery to the electric power feed terminal is shut off, so the electric component can be stopped from being charged, even after being connected to the electric power feed terminal. In consequence, even when the electronic component can be charged after being connected to the electric power feed terminal with the ignition off, a battery remaining level that is needed when a vehicle runs next time can be ensured.

Abstract: Systems, apparatuses, and methods disclosed herein include a system including a heating, venting, and air conditioning (HVAC) system and a controller coupled to the HVAC system. The controller is configured to receive internal vehicle information, external static information, and external dynamic information, and to control operation of the HVAC system based on the internal vehicle information, external static information, and external dynamic information.

Abstract: A route guide apparatus and a route guide method for an electric vehicle may include a sensor to measure an ambient temperature of the electric vehicle, a battery manager to monitor a battery temperature, and a processor to perform a route guide by predicting battery power based on at least one of the ambient temperature or the battery temperature, when searching for a traveling route to a destination, and by selecting, as a traveling route, a route which represents the least total cost of battery consumption energy based on the predicted battery power.

Abstract: A charging-and-discharging device and a charging-and-discharging method are provided. The charging-and-discharging device includes a renewable energy converter, an aluminum battery, a controller and a current converter. The renewable energy converter receives a power from a renewable energy power generation system. The controller is coupled to the renewable energy converter and the aluminum battery, wherein the controller configures a charging-and-discharging power of the aluminum battery, according to a power value of the power, to compensate the power so as to generate a compensated power. The current converter is coupled to the controller, wherein the current converter outputs the compensated power to a power grid after performing DC/AC converting.

Abstract: A system for providing a speed profile of a self-driving vehicle includes a vehicle driving information prediction device, and a speed profile generation device, wherein the vehicle driving prediction device includes a navigation unit configured to set information on a drive route and a target travel time, a 3D map information provision unit configured to search for gradient information of the drive route set by the navigation unit, and a vehicle driving information provision unit, and wherein the speed profile generation device includes a vehicle energy consumption calculation unit configured to calculate energy consumption at a current speed of the vehicle when the vehicle runs along the set drive route, and a speed profile calculation unit configured to calculate a distance-based target speed profile by executing a dynamic programming algorithm.

Abstract: Methods, systems, and devices for power electronics-based (PE-based) battery management. A system may include a set of battery strings, where each battery string may include a set of battery modules, and where each battery module may include a set of battery cells. The system may also include a set of power converters, where each power converter may be coupled with at least one battery string. A power electronics-based (PE-based) BMS may provide one or more battery management functions for at least one corresponding battery string while also monitoring or controlling a corresponding power converter.

Abstract: A power supply system includes a first drive motor, a second drive motor, a first power line to which a first inverter and a first battery are connected, a second power line to which a second inverter and a second battery are connected, a voltage converter that converts a voltage between the first power line and the second power line, and an ECU that operates the first and second inverters and the voltage converter and controls charging and discharging of the first and second batteries. In a case where total required power is larger than first outputtable power of the first battery, the ECU discharges a shortage of power from the second battery to the second power line, wherein the shortage of power is obtained by excluding an amount that is output by the first battery from the total required power.

Abstract: The disclosure provides high voltage interlock circuit and detection method. The circuit comprises: a power module, a positive electrode of the power module being connected to one end of a current generating module; the current generating module, the other end of the current generating module being connected to a first terminal of a high voltage component module to inject a constant DC current into the high voltage component module; a first voltage dividing module, one end of the first voltage dividing module being connected to a second terminal of the high voltage component module, and the other end of the first voltage dividing module being connected to a negative electrode of the power module and a power ground; and a processing module to determine a fault of the high voltage component module based on a first voltage collected from the second terminal of the high voltage component module.

Abstract: If the destination has not been input, it is judged whether the present location is on the expressway (step S32). If the judgement result of the step S32 is positive, it is judged whether or not the actual SOC is less than or equal to the threshold TH2 (step S34). If the judgement result of the step S34 is positive, the restoring control is executed (step S36). Subsequent to the step S34 or S36, it is judged whether or not the vehicle is still on the expressway (step S38). If the judgement result of the step S38 is positive, it is judged whether or not the actual SOC is greater than or equal to the SOC_T2 (step S42). If the judgement result of the step S42 is positive, the maintaining control is executed (step S44).

Abstract: A charging processing system includes: a power supply facility that supplies CO2 free power generated using renewable energy; a vehicle in which CO2 free charging is able to be performed to charge an onboard power storage device using the CO2 free power supplied from the power supply facility; a mobile terminal portable by a user of the vehicle; and a server. The server issues, when the CO2 free charging is performed in the vehicle, a coupon to the user of the vehicle in which the CO2 free charging is performed, the coupon being usable at a shop located around the power supply facility. When a timing to perform the CO2 free charging is included in a specific time period, the server increases the number of issued coupons and a usage value of each coupon.

Abstract: A shift range control device includes a plurality of control units provided for each of motor windings. When a motor rotation angle sensor is normal, a drive control unit controls an energization of the motor winding of its own system by using a motor rotation angle signal. When the motor rotation angle sensor has an abnormality and it is determined that an output shaft is rotating before a standby time elapses, the drive control unit does not energize the motor winding of its own system. When it is determined that the output shaft is not rotating even after the standby time has elapsed, the drive control unit controls the energization of the motor winding of its own system without using the motor rotation angle signal.

Abstract: A motor drive device includes a single-phase inverter that converts a direct-current voltage output from a power supply which is a battery, into an alternating-current voltage. The inverter outputs the alternating-current voltage as an applied voltage to be applied to a motor. The applied voltage is lower when the direct-current voltage is a second voltage lower than a first voltage than when the direct-current voltage is the first voltage. Consequently, a discharge current of the battery is reduced, and the motor drive device capable of reducing an increase in battery temperature can be obtained.

Abstract: A method for determining a heating load of a hybrid electric vehicle includes determining an SOC of a high-voltage battery through a controller, determining whether or not there is a heating request, based on a travel pattern input, through the controller when the SOC of the high-voltage battery is normal, calculating a required heating load according to the travel pattern input when there is the heating request, calculating an environmental condition according to an environment of the vehicle when there is the heating request, calculating a final heating load value through a combination of the calculated required heating load and the environmental condition of the vehicle, and adjusting a basic request engine torque according to the travel pattern input, taking into consideration the calculated final heating load value, and controlling driving of an engine based on the adjusted basic request engine torque.

Abstract: A method and a system for automatic yaw torque equalization (AYTE) in an electrically driven vehicle having wheel-individual torque distribution (torque vectoring drive).

Abstract: A method for calculating a management setpoint for managing fuel and electric power consumption of a hybrid motor vehicle. The method includes: a) acquiring, via a navigation system, a journey to be made, b) dividing the journey into successive sections, c) acquiring, for each section, attributes characterizing the section, d) deducing a relation linking the estimated fuel consumption of the hybrid motor vehicle over the section to the estimated electric power consumption of the hybrid motor vehicle, e) measuring the actual fuel consumption and the actual electric power consumption of the motor vehicle, f) correcting the relation, taking into account the actual fuel and electric power consumptions, and g) determining an optimal consumption point in each of the corrected relations in order to minimize the fuel consumption of the motor vehicle over the journey as a whole.

Abstract: A system for emissions mitigation for a hybrid automobile vehicle includes an automobile vehicle provided with motive power from: a battery pack; an engine; and a controller in communication with the battery pack and the engine. A threshold battery pack state-of-charge (SOC) is predetermined. A minimum battery pack SOC is less than the threshold battery pack SOC. An engine-on charge depletion (EOCD) command is issued by the controller to start the engine in an engine-catalyst light-off operation condition when the vehicle is operating using power from the battery pack and when the threshold battery pack state-of-charge (SOC) is reached to mitigate against exceeding vehicle emissions standards.

Abstract: A vehicle is provided to include an engine, a motor operating with electrical energy of a battery, an engine clutch for switching between an operation mode including an EV mode for transferring power generated by the motor to wheels and an HEV mode for transferring power generated by the engine and the motor to the wheels, and a controller. The controller collects status information from the motor and the engine, determines an equivalence factor based on status information of the battery and load information using electrical energy of the battery and determines an operation mode in which energy consumption is minimized among a plurality of energy consumption amounts calculated based on the determined equivalent factor and the modes of the engine clutch.

Abstract: An apparatus for controlling energy consumption of a vehicle includes an input unit configured to receive an input of a destination, a sensor unit configured to sense environment information of an area around the vehicle, and a control unit configured to calculate an amount of energy available from an energy supply source, estimate a movable distance of the vehicle based on the calculated amount of energy, and compare the estimated movable distance with a distance to the destination to thereby determine whether to activate a power saving driving mode. The control unit searches for a route to a position corresponding to the destination and divides the route into a plurality of sectors. The power saving driving mode is a mode in which the sensor unit is deactivated in at least one of the plurality of sectors.

Abstract: An energy supply device contains: (a) a supply mechanism for supplying electrical power for a power supply system or for an electrical consumer connected to the power supply system; (b) a control unit for controlling an operation of the supply mechanism in first and second operating modes; (c) an interface configured to receive external control signals and to forward the external control signals that indicate how the supply mechanism works in the first operating mode; and (d) a communication monitoring unit that is coupled to the interface and the control unit and monitors whether external control signals are received by the interface, and, if the interface has not received any external control signals or any valid external control signals over a pre-determined amount of time, to transmit an operating mode control signal to the control unit, which causes it to operate the supply mechanism in the second operating mode.

Abstract: A wireless charging mount includes a wireless charger, an attachment portion, and a base portion. The wireless charger is coupled to the attachment portion, and the attachment portion is coupled to the base portion to support the wireless charger on the base portion. The base portion can attach with a movable or stationary object for supporting the mount thereon. The attachment portion supports a handheld electronic device on the mount, and the wireless charger selectively provides power to the handheld electronic device.