A method of operating a vehicle climate system includes, by a controller, responsive to a same blower motor request, operating a blower motor at a first speed responsive to a heater core isolation valve (HCIV) directing coolant used to heat a cabin to an engine. The method further includes, by the controller, responsive to the same blower motor request, operating the blower motor at a second speed less than the first speed responsive to the HCIV directing the coolant to an electric heater and not to the engine.

A method of operating a vehicle climate system includes, by a controller, responsive to a same blower motor request, operating a blower motor at a first speed responsive to a heater core isolation valve (HCIV) directing coolant used to heat a cabin to an engine. The method further includes, by the controller, responsive to the same blower motor request, operating the blower motor at a second speed less than the first speed responsive to the HCIV directing the coolant to an electric heater and not to the engine.

A control device includes a control unit and a communication unit. The control unit is configured to calculate a set value that is the set value of an air conditioner provided in the destination facility of a vehicle and is to be used by the occupants of the vehicle, based on information on the air conditioning environment in the vehicle and is configured to send the calculated set value of the air conditioner to a predetermined sending destination via the communication unit.

A system includes an actuator that produces heat or cold onboard an electric vehicle and a controller that generates an operating command to control the actuator to deliver a first average power over a predetermined time period based on one or more climatic conditions and based on a vehicle energy parameter. The vehicle energy parameter indicates whether (a) the electric vehicle or another electric vehicle is consuming electric energy or (b) the electric vehicle or another electric vehicle is producing the electric energy. The controller generates the operating command such that the first average power delivered by the actuator during the predetermined time period has substantially the same value as a second average power delivered by the actuator when the controller generates the operating command based only on the one or more climatic conditions.

A control device includes a control unit and a communication unit. The control unit is configured to calculate a set value that is the set value of an air conditioner provided in the destination facility of a vehicle and is to be used by the occupants of the vehicle, based on information on the air conditioning environment in the vehicle and is configured to send the calculated set value of the air conditioner to a predetermined sending destination via the communication unit.

An air-conditioning control apparatus includes a determiner and a controller. The determiner is configured to determine whether a subject vehicle is in a slipstream of a preceding vehicle when the subject vehicle is in autonomous control and following the preceding vehicle. The controller is configured to increase a flow rate of air flowing through a condenser for an air-conditioning of the subject vehicle when the determiner determines that the subject vehicle is in the slipstream of the preceding vehicle. According to this, even when the subject vehicle is in the slipstream and following the preceding vehicle during the autonomous control, the flow rate of the air flowing through the condenser can be increased by the controller. Accordingly, the flow rate of the air flowing through the condenser of the subject vehicle can be secured in the condition where the inter-vehicle distance from the preceding vehicle is small during vehicle platooning.

A heat exchange system includes a heat exchanger, a radiator, a connecting member, a shutter, and a controller. The heat exchanger is configured to exchange heat between a heat medium circulating through a heat exchange cycle and an air introduced into an engine compartment. The radiator is configured to exchange heat between a cooling water and the air. The connecting member thermally connects between the heat exchanger and the radiator. The shutter is configured to selectively allow and prevent supply of air to the heat exchanger and the radiator. The controller is configured to determine whether a required heat absorption amount of the heat exchanger can be supplemented by a required heat dissipation amount of the radiator, and control the shutter to move in a closing direction upon determining that the required heat absorption amount can be supplemented by the required heat dissipation amount.

Methods and systems are provided for optimizing engine climate control performance and fuel economy in engines configured with start/stop capabilities. Climate control inhibits of start/stop actions are adjusted as a function of operator driving habits and climate control inputs and preferences. The approach enables climate performance to be improved while also allowing for frequent idle-stop operation.

Methods and systems are provided for optimizing engine climate control performance and fuel economy in engines configured with start/stop capabilities. Climate control inhibits of start/stop actions are adjusted as a function of operator driving habits and climate control inputs and preferences. The approach enables climate performance to be improved while also allowing for frequent idle-stop operation.

A system includes an actuator that produces heat or cold onboard an electric vehicle and a controller that generates an operating command to control the actuator to deliver a first average power over a predetermined time period based on one or more climatic conditions and based on a vehicle energy parameter. The vehicle energy parameter indicates whether (a) the electric vehicle or another electric vehicle is consuming electric energy or (b) the electric vehicle or another electric vehicle is producing the electric energy. The controller generates the operating command such that the first average power delivered by the actuator during the predetermined time period has substantially the same value as a second average power delivered by the actuator when the controller generates the operating command based only on the one or more climatic conditions.