A kitchen air-conditioning system comprises an air-conditioning assembly (1) and a range hood assembly (2). The air-conditioning assembly (1) comprises a compressor (11), an evaporator (12) and a condenser (13) which are connected with each other through a plurality of refrigerating medium pipes (14); the condenser (13) and the range hood assembly (2) are connected through a secondary refrigerant pipe (3), a heat dissipation unit (4) in communication with the secondary refrigerant pipe (3) is disposed on the range hood assembly (2). The secondary refrigerant pipe (3) on the condenser has a secondary refrigerant inlet and a secondary refrigerant outlet, and the secondary refrigerant in the secondary refrigerant pipe (3) can exchange heat with the refrigerating medium in the condenser (13), and the heat dissipation units (4) connected to the secondary refrigerant pipe (3) can quickly take away heat generated by the condenser.

An illustrative HVAC controller may include a communication module for wirelessly communicating with a network and wiring terminals for receiving a wired connection to a remote temperature sensor that is situated remote from the HVAC controller and in a living space of the building. A controller may be operably coupled to the communication module and the wiring terminals and may be configured to implement a thermostat control algorithm to generate one or more control signals, wherein the one or more control signals are provided by a wired connection to the HVAC system to control one or more HVAC components of the HVAC system. The thermostat control algorithm may be configured to compare a sensed temperature received from the remote temperature sensor via the wiring terminals and a temperature setpoint received from the server via the network.

An air-conditioning management apparatus includes: a management-side communication device; a management-side input device that receives an instruction; a management-side display device that displays information; and a management-side control device that includes a management application processing unit. The management application processing unit includes a management individual processing unit and a management comprehensive processing unit. The management individual processing unit includes: an air-conditioning-operation processing unit; an air-conditioning-initial-settings processing unit; an air-conditioning-state-monitoring processing unit; and a processing unit that performs processing. The management comprehensive processing unit performs comprehensive processing on data processed by the management individual processing unit.

Disclosed is a multifunctional storage system including a machine chamber and a compartment, in which clothes are received, the multifunctional storage system including: a heat pump unit located in the machine chamber and including an evaporator, a condenser, a compressor, and a pressure controller; a moisture supply unit coupled to the heat pump unit and including a humidification filter; and a fan unit configured to circulate air in the machine chamber from the evaporator toward the condenser, wherein the moisture supply unit is coupled to a front end of the evaporator with reference to a circulation direction of the air, and wherein moisture is supplied to the humidification filter according to a preset condition, and loads of the evaporator and the condenser are increased as the moisture is supplied to the air when the air passes through the humidification filter.

A foothold including a thermoelectric module includes a body having an air channel in which a suction fan is provided and a dissipation channel in which a dissipation fan is provided, and a cover including an air discharge portion disposed on the body. Further, the thermoelectric element is disposed between the dissipation heat sink and the cover.

A compact fan and air conditioner assembly includes an air conditioner mounted stationary below a ceiling of a room. The air conditioner produces a quantity of cold air. A fan receives the cold air from the air conditioner. The fan has a housing mounted stationary below the air conditioner and blades rotating about the housing. The fan blades have channels receiving the cold air from the air conditioner and slots formed in the blades for receiving the cold air from the channels and distributing the cold air into the environment as the fan blades rotate. A split fan and air conditioner assembly includes a floor stand on which the air conditioner and the fan are mounted. A split fan and air conditioner assembly having a ceiling fan unit separate from a compressor unit and a portable air conditioner assembly having a rotatable head unit, are also provided.

A refrigerator having an air processing apparatus includes a first cabinet including a storage compartment and second cabinet mounted at one surface of the first cabinet includes an inlet hole and an outlet hole, a blower fan to blow the air drawn into the inlet hole towards the outlet hole, and a filter unit to filter the air drawn into the second cabinet via the inlet hole. A first PCB includes a first control unit to control at least one of a compressor and a pressure regulator, and a second PCB includes a second control unit to control the blower fan. A first mounting unit at one surface of the first cabinet defines a predetermined space which can accommodate the first PCB, and a second mounting unit at one surface of the second cabinet defines a predetermined space which can accommodate both the first PCB and the second PCB.

A thermally enhanced heating system and a method for thermally enhancing a HVAC system are provided. The thermally enhanced heating system preferably includes an outdoor HVAC unit and an indoor HVAC unit. The indoor HVAC unit includes a first heat exchanger for transferring heat from a refrigerant, a second heat exchanger for transferring heat from a fuel source, and a third heat exchanger for transferring heat to the refrigerant. The outdoor HVAC unit includes an outdoor heat exchanger for transferring heat from an outdoor air to the refrigerant, a pump configured to circulate the refrigerant, and an ejector configured to combine the refrigerant from the outdoor heat exchanger and the third heat exchanger. Preferably the outdoor HVAC unit is operated to circulate the refrigerant through a first refrigerant circuit and a second refrigerant circuit, and combine refrigerant in the first refrigerant circuit and the second refrigerant circuit.

A refrigerator having an air processing apparatus includes: a first cabinet including a storage compartment defining a space in which objects for refrigerating or freezing are stored, and a first door for opening and closing the storage compartment. A second cabinet detachably mounted on one surface of the first cabinet includes an inlet hole and an outlet hole, a blower fan to blow the air drawn into the inlet hole towards the outlet hole, and a filter unit to filter the air drawn into the second cabinet via the inlet hole. A first PCB includes a first control unit implemented to control at least one of a compressor and a pressure regulator of the first cabinet, and a second PCB includes a second control unit implemented to control the blower fan. A first mounting unit is provided at one surface of the first cabinet and defines a predetermined space which can accommodate the first PCB, and a second mounting unit is provided at one surface of the second cabinet and defines a predetermined space which can accommodate both the first PCB and the second PCB.

A system and method for controlling HVAC equipment in a residential setting. The system may include an outdoor temperature sensor positioned to measure outdoor temperatures, an indoor air temperature sensor to measure indoor space air temperatures, a supply duct air temperature sensor positioned to measure supply duct air temperatures, a return duct air temperature sensor positioned to measure return duct air temperatures, an air blower current sensor positioned to measure air blower currents, and/or an air compressor current sensor positioned to measure air compressor currents, and a controller operable to receive the measures of outdoor temperature, indoor space air temperature, supply duct air temperature, return duct air temperature, air blower current, air compressor current, and measures of solar irradiation intensity and wind speed. The controller may be programmed with instructions to input the measures into a thermal model for outputting signals for implementing changes in the system.