Abstract: Disclosed is a lower cross member of a vehicle. The lower cross member includes a core member configured to be disposed on a vehicle floor so as to extend in a width direction of the vehicle, to be formed of a composite material including unidirectional carbon fiber or bidirectional carbon fiber, and to have a cross-section including at least one closed curve, a lower layer configured to extend in an extending direction of the core member, to be disposed between the core member and the vehicle floor, and to be formed of a composite material including a first multi-axial glass fabric, and an upper layer configured to extend in the extending direction of the core member, to be disposed on an upper surface of the core member, and to be formed of a composite material including a second multi-axial glass fabric.

Abstract: An embodiment coolant control module includes a housing including a coolant inlet configured to receive a coolant, a coolant outlet configured to discharge the coolant, an internal passage connecting the coolant inlet and the coolant outlet, and a pump mounting part adjacent to the coolant outlet. The coolant control module further includes a control valve disposed inside the housing and configured to change a direction of the coolant, a coolant pump coupled to the pump mounting part of the housing, a driving motor unit mounted on the housing, connected to the control valve, and configured to drive the control valve, and a controller mounted on the housing, connected to the coolant pump and the driving motor unit, and configured to control an operation of the coolant pump and the driving motor unit.

Abstract: An embodiment water supply module includes a reservoir tank partitioned to accommodate a first coolant and a second coolant having different temperatures. A heat exchanger is coupled to the reservoir tank and includes a first coolant passage and a second coolant passage through which the first coolant and the second coolant flow and a refrigerant passage capable of exchanging heat with the first coolant passage and the second coolant passage. A controller is coupled to the reservoir tank and includes a directional control valve configured to control a flow of the first coolant and the second coolant in a plurality of directions.

Abstract: Disclosed is a lower cross member of a vehicle. The lower cross member includes a core member configured to be disposed on a vehicle floor so as to extend in a width direction of the vehicle, to be formed of a composite material including unidirectional carbon fiber or bidirectional carbon fiber, and to have a cross-section including at least one closed curve, a lower layer configured to extend in an extending direction of the core member, to be disposed between the core member and the vehicle floor, and to be formed of a composite material including a first multi-axial glass fabric, and an upper layer configured to extend in the extending direction of the core member, to be disposed on an upper surface of the core member, and to be formed of a composite material including a second multi-axial glass fabric.

Abstract: Provided is a radiator and condenser assembly, and more particularly, a radiator and condenser assembly capable of forming a pair of protrusions for horizontally fixing the condenser at a lower portion of a header tank of the radiator and forming a fixed part in a ‘U’ shape for fixing the condenser in a front and back direction to directly fix a vapor-liquid separator of the condenser to the header tank of the radiator to remove a fixed bracket formed in the condenser, thereby saving component manufacturing costs and additional process and processing costs for forming the fixed bracket.

Abstract: A cooling module is formed by stacking a condenser mounted in order to cool an engine of a vehicle and cool a refrigerant of an air conditioner, an electronic radiator disposed below the condenser, an engine radiator, and a fan shroud assembly and capable of improving cooling performance of the electronic radiator by forming the engine radiator in only a region in which the condenser is formed or forming the engine radiator in a portion of a region in which the electronic radiator is formed as well as the region in which the condenser is formed, in a height direction and including an air guide installed at a portion corresponding to the electronic radiator below the engine radiator to allow air to be introduced toward the electronic radiator.

Abstract: A radiator for a vehicle is provided. The radiator includes a first header tank that has an inlet port formed at a first side thereof to allow a coolant to flow from an engine thereinto and an outlet port formed at a second side thereof to allow the coolant to flow to the engine. A second header tank is disposed apart from the first header tank. A heat-exchanging portion fluidly connects the inlet tank and the outlet tank and includes a plurality of tubes and radiation fins to cool the coolant flowing in the tubes by exchanging heat with air. A diaphragm unit is disposed at the inside of the first header tank to prevent the coolant which flows into the inlet port from being mixed with the coolant which is exhausted from the outlet port.

Abstract: A cooling module is formed by stacking a condenser mounted in order to cool an engine of a vehicle and cool a refrigerant of an air conditioner, an electronic radiator disposed below the condenser, an engine radiator, and a fan shroud assembly and capable of improving cooling performance of the electronic radiator by forming the engine radiator in only a region in which the condenser is formed or forming the engine radiator in a portion of a region in which the electronic radiator is formed as well as the region in which the condenser is formed, in a height direction and including an air guide installed at a portion corresponding to the electronic radiator below the engine radiator to allow air to be introduced toward the electronic radiator.

Abstract: Provided is a radiator and condenser assembly, and more particularly, a radiator and condenser assembly capable of forming a pair of protrusions for horizontally fixing the condenser at a lower portion of a header tank of the radiator and forming a fixed part in a ‘U’ shape for fixing the condenser in a front and back direction to directly fix a vapor-liquid separator of the condenser to the header tank of the radiator to remove a fixed bracket formed in the condenser, thereby saving component manufacturing costs and additional process and processing costs for forming the fixed bracket.