A laundry treating apparatus may include a drum in which laundry is stored, an air flow passage through which air is circulated, and a heating duct configured to supply hot air to the drum. The air flow passage and heating duct may be configured to prevent or reduce or cooling or condensing of moisture in the circulated air. A steam compressor may be provided to compress some of the air flowing through the air flow passage.

A laundry treating apparatus may include a drum in which laundry is stored, an air flow passage through which air is circulated, and a heating duct configured to supply hot air to the drum. The air flow passage and heating duct may be configured to prevent or reduce or cooling or condensing of moisture in the circulated air. A steam compressor may be provided to compress some of the air flowing through the air flow passage.

A laundry treating appliance for treating laundry according to an automatic cycle of operation includes a cabinet defining a cabinet interior. A drum is rotatable within the cabinet interior, and at least partially defines a treating chamber. The treating chamber has a treating chamber air inlet and a treating chamber air outlet. A drying air circuit is fluidly coupled to the treating chamber air inlet and to the treating chamber air outlet. The laundry treating appliance can include first and second air temperature sensors, at least a first humidity sensor, and a controller operably coupled with the sensors.

A dryer including a drum; a heat pump including a compressor, evaporator, condenser, and electronic expansion valve; a user interface; a power module to control power supply to the compressor motor and the drum motor; a duct to receive air from the drum so that the received air flows in the duct to be heated by operation of an evaporator and condenser, and to discharge the heated air to the drum; a plurality of temperature sensors to detect temperature of the heat pump, the power module, and the duct; and a controller configured to identify a factor to be controlled from among a plurality of factors that may cause incomplete drying, based on at least one of output data from the plurality of temperature sensors and opening degree data of the electronic expansion valve, and control the user interface to output a notification of the identified factor to be controlled.

A dryer including a drum; a heat pump including a compressor, evaporator, condenser, and electronic expansion valve; a user interface; a power module to control power supply to the compressor motor and the drum motor; a duct to receive air from the drum so that the received air flows in the duct to be heated by operation of an evaporator and condenser, and to discharge the heated air to the drum; a plurality of temperature sensors to detect temperature of the heat pump, the power module, and the duct; and a controller configured to identify a factor to be controlled from among a plurality of factors that may cause incomplete drying, based on at least one of output data from the plurality of temperature sensors and opening degree data of the electronic expansion valve, and control the user interface to output a notification of the identified factor to be controlled.

A laundry appliance includes a cabinet, a drum rotatably mounted within the cabinet for receipt of clothes, and an integrated ironing assembly including an induction coil assembly positioned within the cabinet, such as below a top panel of the cabinet, and being selectively energized to generate a magnetic field for heating an ironing tool, such as a ferromagnetic ironing plate, when the ironing tool is positioned within the magnetic field generated by the induction coil assembly.

A washing machine with drying function includes a cabinet having a laundry insertion hole; a tub having a front opening, and a back opening; a drum; and a heated air supplying device above the tub that includes an evaporator, a condenser, a heater, a heat exchange duct, an inlet, a supply duct, and a blower fan. Air from the back opening of the tub is introduced into the inlet duct and is guided by the inlet duct and received by the heat exchange duct and then passes through the heat exchange duct in a lateral direction of the tub. The air passed through the heat exchange duct is received by the supply duct and discharged by the supply duct toward a front side of the tub. The blower fan forms causes the air discharged from the supply duct to be supplied to the tub.

A hanger device of present disclosure includes a main body including a at least one cabinet and a cover to cover the at least one cabinet, the cover having at least one opening and the cabinet having at least one discharge port. A fan module is provided in the cabinet and is configured to suction air through the opening of the cover and force the air to the discharge port. A filtering module is disposed over the fan module to filter air as the air is suctioned through the opening of the cover. A discharge tube extends through upper and lower surfaces of the main body and has at least one discharge duct which communicate with the at least one discharge port of the cabinet. A hanging unit extends from the bottom surface of the main body.

A hanger device of present disclosure includes a main body including a at least one cabinet and a cover to cover the at least one cabinet, the cover having at least one opening and the cabinet having at least one discharge port. A fan module is provided in the cabinet and is configured to suction air through the opening of the cover and force the air to the discharge port. A filtering module is disposed over the fan module to filter air as the air is suctioned through the opening of the cover. A discharge tube extends through upper and lower surfaces of the main body and has at least one discharge duct which communicate with the at least one discharge port of the cabinet. A hanging unit extends from the bottom surface of the main body.

A method for drying laundry with a radio frequency (RF) generator connected to an applicator and a rotatable cylindrical drum having a pair of non-anode baffles and a third baffle comprising an anode element positioned between the pair of non-anode baffles and a first cathode element disposed between the third baffle and one of the pair of non-anode baffles and a second cathode disposed between the third baffle and the other of the pair of non-anode baffles. The method comprises rotationally positioning the drum such that laundry is positioned between the anode element within the third baffle and the pair of non-anode baffles, energizing the RF applicator for a time period to generate a field of electromagnetic radiation (e-field) within the radio frequency spectrum between the anode element and the at least one of the first and second cathode elements such that liquid in laundry residing within the e-field will be dielectrically heated to effect a drying of the laundry during the time period, rotating the drum to redistribute laundry, and repeating the positioning the drum and energizing the RF applicator.