A thermal management system is disclosed configured to regulate the temperature of a number of vehicle components. The system comprises one expansion tank and two or more coolant circuits each configured to regulate the temperature of a vehicle component of the number of vehicle components. Each coolant circuit of the two or more coolant circuits comprises a heat exchanger configured to regulate the temperature of coolant in the coolant circuit, a coolant pump comprising a pump inlet, and a static line fluidly connecting the pump inlet to the expansion tank. The present disclosure further relates to a vehicle comprising a thermal management system.

This disclosure details thermal management systems with two or more cooling loops for thermally managing multiple components of an electrified vehicle. An exemplary thermal management system may include a deaeration device that is fluidly connected to two or more cooling loops (e.g., a traction battery pack loop, a power electronics loop, etc.). The deaeration device is configured to allow for deaeration of the two or more cooling loops while reducing coolant transfer and heat transfer between the two or more cooling loops.

A liquid tank for a liquid system of a vehicle, comprising a tank housing for storage of a liquid of the liquid system, wherein the tank housing is designed as multiple shells and has at least two tank housing shells that are joined to one another, and at least one flow passage of the liquid system, which flow passage is integrated in the tank housing. At least one of the at least one flow passages integrated in the tank housing is formed by two joined tank housing shells of the at least two tank housing shells.

A valve for a liquid system of a vehicle having a valve housing with a multiplicity of valve housing openings, a valve body that is arranged in the valve housing so as to be rotatable about a rotational axis and has at least one flow-conducting connecting passage for the flow-conducting connection of at least two valve housing openings of the multiplicity of valve housing openings. A valve seal is arranged between the valve housing and the valve body. A valve actuator rotates the valve body about the rotational axis, and a multiplicity of flow passages corresponding to the valve housing openings for the flow-conducting connection of the valve to a remainder of the liquid system, are provided. The flow passages are jointly formed from a single first passage shell and a single second passage shell. The first passage shell is simultaneously formed as the valve housing.

An expansion tank, including a tank body, in which a first chamber, a second chamber, and a first through hole through which the first chamber communicates with the second chamber are provided; the tank body has a pipe communicating with an interior of the tank body, and a side wall of the pipe has a mixed liquid inlet; a second partition is provided within the pipe; one end of the second partition is connected to the side wall and the other end of the second partition extends to the mixed liquid inlet to form a first channel and a second channel ; a first end of the first channel is connected to the first chamber, a second end of the first channel is closed, a first end of the second channel is connected to the second chamber, a second end of the second channel is connected to a water pump.

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.

The present disclosure relates to a water supply module integrated with a reservoir tank, the module comprising: a reservoir tank in which a hollow portion is formed to accommodate cooling water therein, and which includes a first mounting part provided on one side thereof and a second mounting part provided on the other side thereof; a first component mounted on the first mounting part; and a second component mounted on the second mounting part, wherein the first component and the second component pass through the reservoir tank so as to be connected such that cooling water paths are directly connected to each other without bypassing the reservoir tank, and thus a cooling circuit of a vehicle cooling system can be simplified and formed to be integrated.

A reserve tank includes a plurality of chambers, including a first chamber, a second chamber, and at least one intermediate chamber, a first inflow port connected to the first chamber, a first outflow port connected to the first chamber, a second inflow port connected to the second chamber, a second outflow port connected to the second chamber, and a plurality of partition walls separating the chambers. Each of the partition walls is provided with a corresponding one of a plurality of refrigerant flow ports. A specific refrigerant flow port includes a first through hole and a second through hole that pass through a specific partition wall and are separated from each other. The specific refrigerant flow port being a refrigerant flow port provided in the specific partition wall among the partition walls.

A motor for driving a liquid end of a pump system. The motor having an inner housing having an outer surface, a mechanical actuator disposed in the inner housing, and a water jacket surrounding at least a portion of the outer surface of the inner housing to define a volume between the inner housing and the water jacket. The volume being sized to circulate water within the water jacket so as to transfer heat from the inner housing to the water.

An expansion tank system for a liquid cooling system includes a first chamber for receiving a coolant, a second chamber for pressurized gas, a first gas conveying device for conveying gas from the first to the second chamber, a second gas conveying device for conveying gas from the second to the first chamber, a first pressure sensor in fluid communication with the first chamber, and a control unit connected to the first gas conveying device, the second gas conveying device and the first pressure sensor for controlling the second conveying device to selectively convey gas from the second to the first chamber if a pressure measured through the first pressure sensor is below a predefined first threshold value, and for controlling the first conveying device to convey gas from the first to the second chamber if a pressure measured through the first pressure sensor is above a second threshold value.