Toyota Jidosha Kabushiki Kaisha

Tomoya Takahashi

Mitsuhiro Tabata

Daiki Yokoyama

Wenfeng Liang

Zidan Xu

Yuki Takahashi

Hiroki Murata

Masato Ehara

Tomoyuki Kubota

Sachio Toyora

Keisuke Fukuoka

Koji Murakami

Takaaki Tanaka

Seiho Yonezawa

Naoki Hayashima

Taisuke Satoi

Hiroshi Chino

A server includes a processor and a communication device configured to acquire a transmitted power amount transmitted from a power facility during external charging of a vehicle participating in a DR. The processor is configured to calculate, when a plurality of vehicles participates in the DR, a standard reward that is a standard of a reward given from an aggregator to each of the vehicles, according to the transmitted power amount, decide, when a first vehicle participates in the DR, a first reward that is a reward given from the aggregator to the first vehicle, such that the first reward becomes the standard reward for the first vehicle, and decide, when a second vehicle participates in the DR, a second reward that is a reward given from the aggregator to the second vehicle, such that the second reward becomes higher than the standard reward for the second vehicle.

Server

A server includes a processing device. The server manages a plurality of vehicles. The processing device sets priority levels for the vehicles. The processing device sets the priority level of a vehicle in which its switching device is in a closed state to be higher than the priority level of a vehicle in which its switching device is in an open state. The processing device selects, based on the priority levels, a participating vehicle to be used for demand-increasing demand response from among the vehicles.

Server and power management system for prioritizing demand response vehicles used for increasing power demand

A power management system includes a vehicle and a charging or discharging lane. The charging or discharging lane configured to execute at least one of charging or discharging of the vehicle in a non-contact manner. The vehicle is configured to acquire contract contents including a charging or discharging amount and a charging or discharging period. The vehicle is configured to execute the contract contents in a charging or discharging lane that is different from electric vehicle supply equipment set in the contract contents and is reachable before the charging or discharging period when the vehicle is predicted to, before a start of the charging or discharging period, be unable to execute the contract contents in the set electric vehicle supply equipment.

Power management system, vehicle, and management server

A vehicle includes: a first energy storage device that is electrically connectable to an external power supply; a wireless communication device; a second energy storage device that supplies power to the wireless communication device, and a control device that communicates with a management device outside the vehicle through the wireless communication device. The first energy storage device is configured to supply power to the second energy storage device. The control device is configured to restrict wireless communication by the wireless communication device when a communication restriction condition set using a cumulative number of communications of the wireless communication device is satisfied. The communication restriction condition when the external power supply and the vehicle are not electrically connected to each other is set to be more easily satisfied than the communication restriction condition when the external power supply and the vehicle are electrically connected to each other.

Vehicle and communication control method for the same

A server manages plural vehicles each configured to be able to participate in a DR. A first vehicle is able to transmit power through a power cable. A second vehicle is able to transmit power in a non-contact manner while being stationary. A third vehicle is able to transmit power in a non-contact manner while traveling. The server includes a communication device and a processing device. The communication device is able to transmit a DR signal to each of the vehicles. The processing device selects a target vehicle, to which the DR signal is to be transmitted, from the vehicles in accordance with the priority degree for participation in the DR. The processing device sets the priority degree of the first vehicle to be higher than that of the second vehicle, and sets the priority degree of the second vehicle to be higher than that of the third vehicle.

Server and power management system

A vehicle frame structure includes a pair of side members located on both right and left sides of a vehicle, each of the pair of side members extending both forward and rearward of a cabin along a respective side of the cabin. As each of the pair of side members extends in a longitudinal direction at a substantially uniform height, a load applied to one end can be transferred toward the other end.

Vehicle frame structure

The control device of hybrid vehiclecomprises an output control partconfigured to control outputs of the internal combustion engineand the motora target SOC setting partconfigured to set a target state of charge, and an arrival rate calculating partconfigured to calculate a probability of the hybrid vehicle reaching the charging station. When the hybrid vehicle is being driven outside the charging station, the output control part is configured to control outputs of the internal combustion engine and the motor so that a state of charge of the battery when the hybrid vehicle reaches the charging station becomes the target state of charge. The target SOC setting part is configured to lower the target state of charge when the probability is relatively high compared to when the probability is relatively low.

Control device of hybrid vehicle

A control device for a hybrid vehicle, the hybrid vehicle including an internal combustion engine, an electric motor, and a battery, includes an electronic control unit configured to: i) set a target SOC which is a target value of an SOC of the battery when the hybrid vehicle arrives at a prescribed charging base; ii) when the hybrid vehicle is traveling outside the charging base, control output of the internal combustion engine and the electric motor such that the SOC at a time when the vehicle arrives at the charging base is the target SOC; and iii) estimate a charging possibility which is a possibility that the battery is charged with an external power source in the charging base when the hybrid vehicle arrives at the charging base, and set the target SOC lower when the estimated charging possibility is high than when the estimated charging possibility is low.

Control device for hybrid vehicle

When a start condition is satisfied after the internal combustion engine has been stopped according to an automatic stop control, a control apparatus reversely rotates the engine to compress an air in an expansion stroke cylinder at that time point, and thereafter generates a first time combustion. The apparatus determines whether the start condition becomes satisfied based on a first start request owing to a driving operation by a driver of a vehicle on which the engine is mounted. When the start condition becomes satisfied based on the first start request, the control apparatus makes a maximum value of an engine generating torque by the first time combustion and/or a maximum torque of the engine generating torque by a second time combustion larger as compared to when the start condition becomes satisfied based on a second start request other than the first start request.

Control apparatus for internal combustion engine

The present invention is directed to a hybrid vehicle comprising a dual clutch transmission having six forward speed stages, wherein arranged between a first input shaft and a first output shaft of the transmission are: a first gear train for a first speed stage; a third gear train corresponding for a third speed stage; a fifth gear train for a fifth speed stage; and a sixth gear train for a sixth speed stage. A second gear train for a second speed stage and a fourth gear train for a fourth speed stage are arranged between a second input shaft and a second output shaft. A first sleeve is provided between the first gear train and the third gear train; a second sleeve is provided between the fifth gear train and the sixth gear train; and a third sleeve is provided between the second gear train and the fourth gear train. A second MG is provided so as to output drive power to the second input shaft.

Hybrid vehicle

A vehicle control device includes an engine, a motor disposed nearer to drive wheel sides than the engine in a vehicle, and a clutch disposed between the engine and the motor and configured to be engaged or released according to an operation input, wherein at the time the clutch is engaged to connect the engine and the drive wheels while the vehicle travels with the engine being stopped, the engine is started by the power transmitted to the engine via the clutch as well as the motor is caused to output assist torque for suppressing a reduction of acceleration of the vehicle caused by that the clutch is engaged, and the assist torque when a braking operation is performed is smaller than the assist torque when the braking operation is not performed.

Growing community of inventors

Ebina, Japan

Tomoya Takahashi