Toyota Jidosha Kabushiki Kaisha

Yu Hoshino

Masao Watanabe

Kunihiko Jinno

Hiroki Awano

Manabu Orihashi

Seiji Yamashita

Yuya Kusano

Shinsuke Hirono

Yohei Kinoshita

A temperature control system includes an air-conditioning circuit, a battery temperature adjustment circuit, a heat exchanger, a thermometer, and a controller. The air-conditioning circuit includes a heating unit for heating the air-conditioning heating medium and an air-conditioning flow amount adjustment unit for adjusting the amount of flow of the air-conditioning heating medium. The battery temperature adjustment circuit includes a battery flow amount adjustment unit for adjusting the amount of flow of the battery heating medium. The controller variably controls the amount of flow of at least one of the air-conditioning heating medium and the battery heating medium, depending on a request for increasing the temperature of the battery, a request for heating the cabin of the vehicle, and the temperature of the battery.

Temperature control system

A vehicle controller that is configured to control traveling of an electric vehicle which is a battery electric automobile or a fuel cell automobile, in which, when the electric vehicle performs towing, the vehicle controller judges whether or not power consumption reduction is needed based on an output of a battery that is configured to supply electric power to a traveling motor and the amount of remaining stored energy, and partially limits the function of the electric vehicle if the power consumption reduction is needed, and the amount of remaining stored energy is the amount of remaining charge in the battery when the electric vehicle is the battery electric automobile, and is the amount of remaining stored hydrogen when the electric vehicle is the fuel cell automobile.

Vehicle controller for reduction of power consumption while towing

The engine, the heater, and the heater core are connected by pipes. When the traveling mode is HEV traveling mode or the engine single traveling mode, a flow path formed of pipes is formed, and the coolant is heated by the engine to heat the heater core. When the traveling mode is EV traveling mode, a flow path including a pipe is formed, and the coolant is heated by the heater to heat the heater core.

Vehicle air conditioner

In a driving switching preparing section of a road wherein autonomous driving performed by an autonomous driving ECU or autonomous driving controller is switched to manual driving performed by a driver, an air conditioner ECU or an air conditioner controller is configured to prohibit air conditioner power cutting control.

Vehicle air conditioner control system and non-transitory recording medium storing vehicle air conditioner control program

A vehicle control device that controls an air conditioning device and a battery in a vehicle that uses a coolant of the air conditioning device that cools a vehicle cabin for cooling the battery, the vehicle control device including: an air conditioning load determination unit that determines whether the air conditioning device is driven by a predetermined load or more; and a battery input-output control unit that controls at least one of an input power or an output power of the battery. When the air conditioning device is driven by the predetermined load or more, at least one of the input power or the output power is restricted without cooling the battery.

Vehicle control device

When a temperature of a coolant is a first predetermined temperature or higher, an air conditioner ECU executes a first control that sets a target evaporation temperature higher by a predetermined temperature and the air conditioner ECU executes a second control that changes the target evaporation temperature in accordance with a cooling load inside the vehicle cabin. When the second control is executed after the first control is executed, the air conditioner ECU sets a first target evaporation temperature set by the first control as the target evaporation temperature, and calculates a second target evaporation temperature that is changed by the second control based on the target evaporation temperature immediately before the first control is executed. When the second target evaporation temperature becomes larger than the first target evaporation temperature, the air conditioner ECU sets the second target evaporation temperature as the target evaporation temperature.

Vehicle air conditioning device

During operation under fuel cutoff control, the fuel cutoff control is interrupted when a decrease in temperature of cooling water from a temperature of cooling water that is detected at a start of the fuel cutoff control reaches or exceeds a second specified value under conditions that a degree of opening of an air mix door is greater than or equal to a predetermined opening degree and that a temperature setting is not raised in an operation unit.

Vehicle engine control apparatus

A defrosting control system includes processing circuitry. The processing circuitry calculates a frost formation rate, indicating a frost formation amount of a windowpane on which frost is formed at an estimated departure time of a vehicle, based on frost formation information and the estimated departure time. The processing circuitry calculates an operation period of a defroster needed to remove frost from the windowpane based on the frost formation rate. The processing circuitry determines that an activation time of the defroster is a time earlier than the estimated departure time by the operation period. The processing circuitry transmits an operation request signal for starting operation of the defroster at the activation time.

Defrosting control system, non-transitory computer readable medium storing defrosting control program, and vehicle control module

An air conditioning control system includes processing circuitry. The processing circuitry includes an ambient temperature obtainment unit, a departure time estimation unit configured to estimate a departure time of a vehicle, an air conditioning condition calculator configured to calculate an operation period and an operation output that allow a passenger compartment temperature of the vehicle to reach a preset target temperature, an air conditioning start time determination unit configured to determine an activation time of an air conditioner, and an air conditioning controller. The air conditioning start time determination unit is configured to determine that the activation time is a time earlier than the departure time by the operation period.

Vehicle air conditioning control system, non-transitory computer readable medium storing air conditioning control program, and method for controlling air conditioning control system

During pre-air conditioning in a vehicle cabin, when consumed electric power exceeds use permission electric power while an auxiliary heating device is operating, an operation of the auxiliary heating device is stopped. In contrast, when the consumed electric power exceeds the use permission electric power while the auxiliary heating device is not operating, a rotation speed of an electric compressor of an air conditioner is restricted. Therefore, the temperature environment in the vehicle cabin is improved by continuing the pre-air conditioning of the air conditioner while reducing the consumed electric power by stopping the operation of the auxiliary heating device.

To provide an evaporator capable of suppressing reduction in heat transport amount while also preventing an increase in the pressure loss of a working fluid. An evaporator comprising a container and a dividing layer adapted to divide the inside of the container into a liquid reservoir chamber and a vapor chamber, wherein the dividing layer includes a heat blocking layer on the liquid reservoir chamber side and a wick layer on the vapor chamber side, a gap is formed between the heat blocking layer and the wick layer, the liquid reservoir chamber and the gap are communicated with each other via a penetration path formed in the heat blocking layer, and a working fluid in the liquid reservoir chamber passes through the penetration path and penetrates into the gap and the wick layer by a capillary force.

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Toyota, Japan

Yu Hoshino