A vehicle thermal management system including an engine, a vehicle cabin, a transmission thermal loop, and a controller is provided. The transmission thermal loop may include a transmission assembly in operational communication with the engine and a cabin thermal loop. The controller may be programmed to, responsive to detection of an engine off condition, output to a shut-off valve an open command such that heat from the transmission thermal loop transfers to the cabin thermal loop to warm the vehicle cabin. The controller may be further programmed to, responsive to detection of a cabin heater core having a temperature above a predetermined threshold, output a command to a coolant heater of an engine thermal loop to direct warm or cold fluid to the transmission assembly based on a detected transmission thermal loop temperature.

A vehicle thermal management system including an engine, a vehicle cabin, a transmission thermal loop, and a controller is provided. The transmission thermal loop may include a transmission assembly in operational communication with the engine and a cabin thermal loop. The controller may be programmed to, responsive to detection of an engine off condition, output to a shut-off valve an open command such that heat from the transmission thermal loop transfers to the cabin thermal loop to warm the vehicle cabin. The controller may be further programmed to, responsive to detection of a cabin heater core having a temperature above a predetermined threshold, output a command to a coolant heater of an engine thermal loop to direct warm or cold fluid to the transmission assembly based on a detected transmission thermal loop temperature.

A heat pump system for a vehicle is provided. The system includes an engine cooling device having a first radiator and a first water pump connected via a first coolant line. An electrical equipment cooling device includes a second radiator and a second water pump connected via a second coolant line. A battery module is disposed in a battery coolant line selectively connected with the second coolant line. An air conditioner is connected with the battery coolant line and includes a third water pump and a cooler disposed in the first connection line. A heating device is connected with the first coolant line via a third valve and includes a fourth water pump and a heater disposed in the second connection line. A centralized energy (CE) module supplies a coolant to the air conditioner, is connected with the coolant lines to supply a high-temperature coolant to the heating device.

A heat pump system for a vehicle is provided. The system includes an engine cooling device having a first radiator and a first water pump connected via a first coolant line. An electrical equipment cooling device includes a second radiator and a second water pump connected via a second coolant line. A battery module is disposed in a battery coolant line selectively connected with the second coolant line. An air conditioner is connected with the battery coolant line and includes a third water pump and a cooler disposed in the first connection line. A heating device is connected with the first coolant line via a third valve and includes a fourth water pump and a heater disposed in the second connection line. A centralized energy (CE) module supplies a coolant to the air conditioner, is connected with the coolant lines to supply a high-temperature coolant to the heating device.

A vehicle thermal management system is provided. The thermal management system for includes a cooling apparatus that circulates a coolant cooled in a radiator through a coolant line to cool a driving device in the vehicle. A main centralized energy (CE) module is connected to the cooling apparatus via the coolant line, selectively heat-exchanges heat energy generated during a condensation and evaporation of the refrigerant circulating the inside with a coolant, and supplies the coolant of low temperature or high temperature to a cooling heat exchanger or a heating heat exchanger. A sub CE module is connected to the cooling apparatus through the coolant line, using the coolant received through the coolant line during the condensation of the coolant circulating the inside, and heat-exchanges heat energy generated during an evaporation of the refrigerant with an air to supply the air of low temperature to a controller in the vehicle.

A vehicle thermal management system is provided. The thermal management system for includes a cooling apparatus that circulates a coolant cooled in a radiator through a coolant line to cool a driving device in the vehicle. A main centralized energy (CE) module is connected to the cooling apparatus via the coolant line, selectively heat-exchanges heat energy generated during a condensation and evaporation of the refrigerant circulating the inside with a coolant, and supplies the coolant of low temperature or high temperature to a cooling heat exchanger or a heating heat exchanger. A sub CE module is connected to the cooling apparatus through the coolant line, using the coolant received through the coolant line during the condensation of the coolant circulating the inside, and heat-exchanges heat energy generated during an evaporation of the refrigerant with an air to supply the air of low temperature to a controller in the vehicle.

An energy management system is applied to a vehicle having a first power source, a first converter, an electricity storage part, and a second power source. The energy management system has a second converter, a heat storage part, a mode switching part, and a controller. The mode switching part switches between a heat storage mode and a heat radiation mode. The heat storage part changes to a first phase in a solid state when a temperature of the heat storage part is lower than or equal to a phase transition temperature, and changes to a second phase in a solid state when a temperature of the heat storage part exceeds the phase transition temperature. The controller controls the operations of the second converter and the mode switching part based on at least one of an electricity storage condition of the electricity storage part and a conversion condition of the first converter.

An energy management system is applied to a vehicle having a first power source, a first converter, an electricity storage part, and a second power source. The energy management system has a second converter, a heat storage part, a mode switching part, and a controller. The mode switching part switches between a heat storage mode and a heat radiation mode. The heat storage part changes to a first phase in a solid state when a temperature of the heat storage part is lower than or equal to a phase transition temperature, and changes to a second phase in a solid state when a temperature of the heat storage part exceeds the phase transition temperature. The controller controls the operations of the second converter and the mode switching part based on at least one of an electricity storage condition of the electricity storage part and a conversion condition of the first converter.

A refrigerated transport system (20) comprises: an engine (30). A vapor compression system (50) comprises: a compressor (40) for compressing a flow of a refrigerant; a first heat exchanger (60) along a refrigerant flowpath (52) of the refrigerant; and a second heat exchanger (66) along the refrigerant flowpath of the refrigerant. A heat recovery system (56) has: a first heat exchanger (110) for transferring heat from the engine to a heat recovery fluid along a heat recovery flowpath (58); and a second heat exchanger (112; 63) along the heat recovery flowpath. The heat recovery system second heat exchanger and the vapor compression system first heat exchanger are respective portions of a shared tube/fin package.

A heating and cooling system for a vehicle included within a radiator module having a plurality of fins. At least two thermophysical batteries are provided, each including an adsorption bed unit and an evaporator condenser unit. At least one upper coolant line extends along the adsorption bed unit of each of the thermophysical batteries and is configured to be connected to a source of waste heat of the vehicle for transferring heat from the source of waste heat to a coolant contained in the coolant line and to the adsorption bed units to recharge the adsorption bed unit. At least one distribution element configured in discharge mode to convey heated fluids from adjacent the adsorption bed units or cooled fluids from adjacent to the evaporator condenser units to another region of the vehicle.