Abstract:
A control unit for a vehicle is configured to control a power-generating unit such that electric power generated by the power-generating unit becomes smaller than that generated when a voltage between terminals of a smoothing capacitor is equal to or larger than an output voltage of a battery, when all of conditions i)-iii) are satisfied, where i) an external power supply unit supplies electric power to the outside in a condition where a shift lever is placed in a parking position, ii) after an amount of electric power stored in the battery is reduced to be smaller than a predetermined power storage amount in a condition where a relay is switched OFF, the relay is operated switch ON, and electric power is generated by the power-generating unit, and iii) the voltage between the terminals of the smoothing capacitor is smaller than the output voltage of the battery.
Abstract:
A vehicle includes a connector for coupling a battery in the vehicle to a load external to the vehicle. An energy management system includes a controller that is programmed to operate the battery in a vehicle according to a target state of charge range that is defined by upper and lower state of charge limits. In response to receiving a request to prepare for power generation at a destination prior to arriving at the destination, the controller increases the lower state of charge limit as the distance to the destination decreases. In response to the request, the battery is operated during the drive cycle to the destination so that the battery state of charge at the destination allows the battery to provide power to the external load for a predetermined period of time before an engine is started.
Abstract:
The present invention relates to a smart energy management system for vehicles that are totally electric (1) or electro-hybrid (2), that prioritizes the regeneration of kinetic energy into electric energy, comprised by a main energy control unit (3) with adaptive control to improve the efficiency with subsequent travel on a specific route, embedded energy storage system (4), two-way charger for normal or occasional recharging of the vehicle (5), or for supplying electric energy to an external consumer, with converters for the auxiliary system (6), and remote operation control and servicing capability, use of a device with touch-sensitive screen (57) and with availability of on-board power sockets for recharging personal devices. The present invention also relates to a smart energy management system for energy generator (22, 23, 24, 25, 69, 84) for the distributed generation of electric energy in a non-embedded mode, as well as a method used to manage energy in these systems and a method for controlling the operation of an energy generator (22, 23, 24, 25 25, 69, 84).
Abstract:
A vehicle is configured to perform external power supply which supplies electric power to outside of the vehicle. The vehicle includes a battery, an engine, a first MG configured to generate electric power using motive power of the engine, a fuel supply port for supplying a fuel for the engine, and an ECU for controlling an external power supply operation. When fuel supply into the fuel supply port is performed during the external power supply, the ECU prohibits driving of the engine, and supplies electric power stored in the battery to the outside of the vehicle.
Abstract:
Vehicles that are capable of connecting to the AC grid are described that comprise a prime mover and at least one motor generator. In one embodiment, a vehicle may be constructed as a plug-in hybrid system and using the powertrain under controller instruction to either place power on an AC power line (to service AC grids) or to draw power from the AC power line to add electrical energy to the batteries on the vehicle. In some aspects, vehicles may test whether the power needed to service the AC power line may be satisfied by the on-vehicle batteries or, if not, whether and how much power to extract from the prime mover. In some aspects, vehicles may have a thermal management system on board to dynamically supply desired heat dissipation for the powertrain, if the powertrain is using the prime mover to supply power to the AC grid.
Abstract:
A failure diagnosis apparatus comprises a controller that is configured to execute a failure diagnosis process of the internal combustion engine based on a predetermined diagnosis requirement. The diagnosis requirement in a case where engine-operation-electric-power supply is executed is made different from the diagnosis requirement in a case where engine-normal-operation is executed such that a failure of the internal combustion engine in the case where the engine-operation-electric-power supply is executed is less likely to be detected or the failure of the internal combustion engine is less likely to be recognized by a driver than in the case where the engine-normal operation is executed.
Abstract:
A bicycle includes a frame, a charging circuit carried by the frame and configured to capture energy associated with movement of the bicycle, a power module carried by the frame, and a switch disposed electrically between the charging circuit and power module. The power module, in response to an indication that the bicycle is travelling downhill, closes the switch to enable energy transfer between the charging circuit and power module.
Abstract:
An ECU controls drive signals output to relays. A current sensor detects current flowing between one of the relays and a power supply port. A connection circuit is configured to electrically connect a first section with a second section when only one of the drive signals is placed into an active state by the ECU. The first section is a portion of a first one of power lines between the current sensor and the power supply port. The second section is a portion of a second one of the power lines between the relay and the power supply port.
Abstract:
A power system for an electric vehicle, an electric vehicle and a motor controller for an electric vehicle are provided. The power system includes: a power battery (10); a charge-discharge socket (20); a three-level bidirectional DC-AC module (30); a motor control switch (40); a charge-discharge control module (50) having a first terminal connected with an AC terminal of the three-level bidirectional DC-AC module (30) and a second terminal connected with the charge-discharge socket (20); and a control module (60) connected with a third terminal of the charge-discharge control module (50) and a third terminal of the motor control switch (40), and configured to control the charge-discharge control module (50) and the motor control switch (40) according to a current working mode of the power system.
Abstract:
A method to provide priority based power management of off-board devices being power by a vehicle comprising: determining an operating mode of the vehicle, the operating mode being an electric operating mode or a fossil fuel operating mode; determining a current state of charge (SOC) of a battery pack of the vehicle; supplying power to the off-board devices when the current SOC of the battery pack is above a minimum threshold value when the vehicle is operating in the fossil fuel operating mode; prioritizing the off-board devices when the vehicle is operating in the electric operating mode; and powering the off-board devices based on a prioritization level of the off-board devices and the current SOC of the battery pack when the vehicle is operating in the electric operating mode.