A computing system for a vehicle is provided. The computing system includes one or more processors for controlling operation of the computing device, and a memory for storing data and program instructions usable by the one or more processors, wherein the one or more processors are configured to execute instructions stored in the memory to estimate at least one characteristic of emissions from at least one forward vehicle expected to enter a ventilation system of an ego-vehicle within a predetermined travel distance ahead of the ego-vehicle and, responsive to one or more estimated characteristics, control the ego-vehicle ventilation system.

A vehicle air conditioning apparatus is provided that can prevent temperature variations of the air after the heat exchange in a radiator to reliably control the temperature of the air supplied to the vehicle interior. During the heating operation and the heating and dehumidifying operation, target degree of supercooling SCt when target air-blowing temperature TAO is a predetermined temperature or higher is set to SCt1 that is greater than SCt2 when the target air-blowing temperature TAO is lower than the predetermined temperature. When amount of air Ga supplied from indoor fan 12 is lower than a predetermined value, the target degree of supercooling SCt is corrected, which is set such that the degree of supercooling is lower than target degree of supercooling corrected when the amount of air Ga supplied from the indoor fan 12 is a predetermined value or higher.

A vehicle air conditioning apparatus is provided that can prevent temperature variations of the air after the heat exchange in a radiator to reliably control the temperature of the air supplied to the vehicle interior. During the heating operation and the heating and dehumidifying operation, target degree of supercooling SCt when target air-blowing temperature TAO is a predetermined temperature or higher is set to SCt1 that is greater than SCt2 when the target air-blowing temperature TAO is lower than the predetermined temperature. When amount of air Ga supplied from indoor fan 12 is lower than a predetermined value, the target degree of supercooling SCt is corrected, which is set such that the degree of supercooling is lower than target degree of supercooling corrected when the amount of air Ga supplied from the indoor fan 12 is a predetermined value or higher.

A vehicle includes a subsystem conditioner and a controller. The controller is programmed to, in response to a difference between user specified and learned times of day being greater than a threshold, activate the conditioner a predetermined time before each of the times of day. The controller is also programmed to, in response to the difference being less than the threshold, activate the conditioner the predetermined time before the specified time of day but not the learned time of day.

A blower fan is driven, and conditioning air flows down through an evaporator and then is supplied into a vehicle compartment. An idling-stop condition in a roof-open state is set to make an idling stop to be relatively easily attained, compared to a roof-closed state, so that a fuel economy can be improved. When an outside-air temperature is a specified temperature or higher or a solar-radiation intensity is a specified degree or greater at an engine's automatic stop, the blower fan is driven, so that the conditioning air is supplied toward a passenger in a manner of an electric fan. The evaporator through which the conditioning air flows down is sufficiently cool at the timing right after the automatic stop of the engine. Accordingly, it is preferable to configure such that the sufficiently-cooled conditioning air is supplied for a properly-long period of time.

A vehicle air conditioner includes a first duct, a second duct, and a third duct. The first duct has a first ventilation opening that is disposed on first side in a width direction of a seat provided in a vehicle. The second side is opposite side of the first side. The second duct has a second ventilation opening that is disposed on second side in the width direction of the seat. The third duct has a third ventilation opening that is disposed in front of the seat.

A vehicle air conditioning apparatus is provided that can prevent temperature variations of the air after the heat exchange in a radiator to reliably control the temperature of the air supplied to the vehicle interior. During the heating operation and the heating and dehumidifying operation, target degree of supercooling SCt when target air-blowing temperature TAO is a predetermined temperature or higher is set to SCt1 that is greater than SCt2 when the target air-blowing temperature TAO is lower than the predetermined temperature. When amount of air Ga supplied from indoor fan 12 is lower than a predetermined value, the target degree of supercooling SCt is corrected, which is set such that the degree of supercooling is lower than target degree of supercooling corrected when the amount of air Ga supplied from the indoor fan 12 is a predetermined value or higher.

A vehicle includes a subsystem conditioner and a controller. The controller is programmed to, in response to a difference between user specified and learned times of day being greater than a threshold, activate the conditioner a predetermined time before each of the times of day. The controller is also programmed to, in response to the difference being less than the threshold, activate the conditioner the predetermined time before the specified time of day but not the learned time of day.

A vehicle air conditioning system includes an air conditioner unit, a temperature sensor, a detection device, a storage, and a controller. The temperature sensor detects a current outside air temperature of a vehicle. The detection device detects an occupant of the vehicle. The storage stores characteristic data that is generated for the occupant and that includes clothing level data and a setting temperature of the air conditioner unit corresponding to outside air temperature data. The controller calculates a clothing level of the occupant, compares the calculated clothing level with the clothing level data that is referred to and that corresponds to the outside air temperature data including the outside air temperature which is input from the temperature sensor, and controls driving of the air conditioner unit by referring to, from the characteristic data, the setting temperature corresponding to the clothing level data including the clothing level.

A system is presented to prevent harm to occupants of unattended vehicles in warm weather due to the greenhouse effect by circulating ambient air through the vehicle using the blower from the vehicle's air conditioning system powered by a solar cell array and rechargeable batteries, with a thermometer controller to engage and shut off the system at preset high and low temperatures, situated in a recessed area on the roof to minimize drag when the vehicle is moving and avoid detracting from the appearance of the vehicle.