A vehicle control system according to an embodiment of the present disclosure may include a detection unit, a control unit and a plurality of devices. The detection unit may detect an object around a vehicle to output detection information provided from the object. The control unit may provide a mode signal and a control signal corresponding to a plurality of operation modes, based on the detection information. The plurality of devices may be driven based on the mode signal and the control signal.

The vehicle control system according to the present disclosure may prevent drowsy driving on a road by allowing the plurality of devices to be driven based on the detection information provided by detecting the object around the vehicle.

The invention describes a safety system for cooling air around a child in a car when an engine of the car is turned off, and a cooling mechanism of the safety system is automatically activated above a specified temperature when a child is left in the car. The safety system incorporates an audio alert, a visual alert, and a mechanism to send a distress signal or call to emergency services after two minutes after the car engine is turned off and the child is not removed from the car. An open-source Firmware code was used to control thermoelectric cooling via Arduino and an Android software code for emergency calls.

A ventilation module can be used with a ventilation seat for a vehicle. A thermoelectric air-conditioning part has a thermoelectric unit performing heat absorption and heat generation by using a Peltier effect when electric power is applied, a cooling unit provided at a first side of the thermoelectric unit, and a heat dissipation unit provided at a second side of the thermoelectric unit. The module is configured so that air that is supplied from a blower is cooled by the thermoelectric air-conditioning part, passes through a cooling fin of the cooling unit, and is discharged to an interior of the vehicle through a seat cushion. The module is configured so that air that is supplied from the blower is heated by the thermoelectric air-conditioning part, passes through a heat dissipating fin of the heat dissipation unit, and is discharged through the heat dissipation path.

An example seat climate system includes a seat, a first ventilation device, a second ventilation device, and a ventilation device controller. The seat has a first ventilation layer and a second ventilation layer. The first ventilation device is connected to the first ventilation layer and has an off state and an on state. The first ventilation device moves air through the first ventilation layer when in the on state. The second ventilation device is connected to the second ventilation layer and has an off state and an on state. The second ventilation device moves air through the second ventilation layer when in the on state. The ventilation device controller is connected to the first ventilation device and the second ventilation device and includes a controller and driver.

A seat air-conditioning device is applied to a seat and includes a cushion material, an outer cover, a ventilation hole and a surface groove. The cushion material supports a back or buttocks of an occupant seated on the seat. The outer cover covers the cushion material and has perforation holes. The ventilation hole is formed at a portion of the cushion material opposed to the back or the buttocks of the occupant seated on the seat. The ventilation hole is configured to suction or blow air. The surface groove is formed at a portion of the cushion material which is adjacent to the outer cover. The surface groove is communicated with the ventilation hole and extends from the ventilation hole in a direction away from a location of the cushion material, at which a center of the back or a center of the buttocks of the occupant is placed.

There is provided a vehicle seat (car seat) comprising a seat cushion pad (seat body) having an air passage connected to an outlet port (114), and a blower having an inlet port (113) and configured to feed air taken in through the inlet port (113) to the air passage. The blower (100) is located on the lower side of the seat cushion pad (seat body) that is opposite to an occupant's side on which an occupant is to be seated, and the inlet port (113) is directed upward that is a direction toward the seat cushion pad (seat body).

A seat support is provided with a plurality of layers of a non-foam material to mount to a seat frame and to support an occupant upon the seat frame. The plurality of layers is stacked upon each other, and each of the plurality of stacked layers has a generally uniform thickness.

A seat includes comprising: a seat bottom and a seat back operatively engaging the seat bottom. At, least one of the seat back and the seat bottom has an air impermeable outer trim layer covering at least a portion of an outer surface. The air impermeable outer trim layer includes perforations extending therethrough. The, size, spacing, or both of the perforations varies based at least in part on a body pressure map, and the perforations are configured to allow airflow therethrough directed toward an occupant of the seat.

A wire harness connected to a sensor is positioned on a back surface of a pad of a vehicle seat supported by a panel. The vehicle seat (1) includes a panel (4); a pad (11, 51) supported by the panel; a skin material (12, 52) covering a front surface of the pad; and a sensor (32) provided between the front surface of the pad and the skin material for acquiring information on a seat occupant, wherein the pad is provided with a through hole (35, 58) passed from the front surface of the pad to a back surface of the pad, and a recess (45, 61) formed in the back surface of the pad and connected to the through hole, the wire harness connected to the sensor extending in the through hole and the recess.

A vehicle seat assembly comprises a seat bottom having a bottom cushion, a seat back coupled to the seat bottom with the seat back having a back cushion, and at least one of the bottom cushion and the back cushion having a passage. The assembly further includes a flow control layer coupled to the cushion having the passage with the flow control layer defining a first support area having a first plurality of slits and a second support area, adjacent to the first support area, having a second plurality of slits. Each slit defines a width that is moveable between a restricted position and a free-flowing position. The width of the first slits can move to the free-flowing position while the width of the second slits remains in the restricted position when the first support area receives a first load for flowing air through the first slits and the passage.