Abstract: A hybrid window air conditioning unit is disclosed. The hybrid window air conditioning unit may include an indoor unit and an outdoor unit operatively connected by a connection unit. The connection unit may have an interior channel containing refrigerant piping and electrical wiring connecting between the indoor unit and the outdoor unit. In some embodiments, the hybrid air conditioning may include a height-adjustable outdoor unit mounting assembly to allow the outdoor unit to be disposed substantially flush with or below a window.

Abstract: A dehumidifier without a condensate tank is provided. The dehumidifier may include a housing, one or more outlets, and no condensate tank. The dehumidifier may be positioned directly above a floor drain and/or a drain within a utility sink during operation. The dehumidifier may include a pump. The dehumidifier may include one or more sensors.

Abstract: A hybrid window air conditioning unit is disclosed. The hybrid window air conditioning unit may include an indoor unit and an outdoor unit operatively connected by a connection unit. The connection unit may have an interior channel containing refrigerant piping and electrical wiring connecting between the indoor unit and the outdoor unit. In some embodiments, the hybrid air conditioning may include a height-adjustable outdoor unit mounting assembly to allow the outdoor unit to be disposed substantially flush with or below a window.

Abstract: A dehumidifier with a nesting sensor is provided. The dehumidifier system includes a condensate tank and a dehumidifier that may be positionable between at least one deployed configuration and at least one stowed configuration relative to the condensate tank. The stowed configuration has the apparatus nested within an internal volume of the condensate tank. The dehumidifier system includes a protuberance on the bottom of the condensate tank to activate a switch of the dehumidifier, and a magnet on the bottom of the condensate tank to activate a Hall-effect sensor of the dehumidifier.

Abstract: A dehumidifier system is provided. The dehumidifier system may include a condensate tank and a dehumidifier. The dehumidifier may be positionable between at least one deployed position and at least one stowed position relative to the condensate tank. The condensate tank and the dehumidifier may telescope relative to each other. The dehumidifier system, or portions thereof, may include one or more stacking structures.

Abstract: An air conditioning system including swappable/interchangeable heat exchanger access panels with accessory mounting capabilities is disclosed. The air conditioning system includes a heat exchanger, a drain pan beneath the heat exchanger to collect condensation from the heat exchanger, a bracket with an opening coupled to the heat exchanger, a plurality of interchangeable access panels adapted to be interchangeably mounted to the opening on the bracket, and an accessory coupled to one of the plurality of access panels.

Abstract: An air conditioning system including swappable/interchangeable heat exchanger access panels with accessory mounting capabilities is disclosed. The air conditioning system includes a heat exchanger, a drain pan beneath the heat exchanger to collect condensation from the heat exchanger, a bracket with an opening coupled to the heat exchanger, a plurality of interchangeable access panels adapted to be interchangeably mounted to the opening on the bracket, and an accessory coupled to one of the plurality of access panels.

Abstract: A dehumidifier system is provided. The dehumidifier system may include a condensate tank and a dehumidifier. The dehumidifier may be positionable between at least one deployed position and at least one stowed position relative to the condensate tank. The condensate tank and the dehumidifier may telescope relative to each other. The dehumidifier system, or portions thereof, may include one or more stacking structures.

Abstract: A dehumidifier with a nesting sensor is provided. The dehumidifier system includes a condensate tank and a dehumidifier that may be positionable between at least one deployed configuration and at least one stowed configuration relative to the condensate tank. The stowed configuration has the apparatus nested within an internal volume of the condensate tank. The dehumidifier system includes a protuberance on the bottom of the condensate tank to activate a switch of the dehumidifier, and a magnet on the bottom of the condensate tank to activate a Hall-effect sensor of the dehumidifier.

Abstract: A hybrid window air conditioning unit is disclosed. The hybrid window air conditioning unit may include an indoor unit and an outdoor unit operatively connected by a connection unit. The connection unit may have an interior channel containing refrigerant piping and electrical wiring connecting between the indoor unit and the outdoor unit. In some embodiments, the hybrid air conditioning may include a height-adjustable outdoor unit mounting assembly to allow the outdoor unit to be disposed substantially flush with or below a window.

Abstract: An air conditioning system including swappable/interchangeable heat exchanger access panels with accessory mounting capabilities is disclosed. The air conditioning system includes a heat exchanger, a drain pan beneath the heat exchanger to collect condensation from the heat exchanger, a bracket with an opening coupled to the heat exchanger, a plurality of interchangeable access panels adapted to be interchangeably mounted to the opening on the bracket, and an accessory coupled to one of the plurality of access panels.

Abstract: A dehumidifier system is provided. The dehumidifier system may include a condensate tank and a dehumidifier. The dehumidifier may be positionable between at least one deployed position and at least one stowed position relative to the condensate tank. The condensate tank and the dehumidifier may telescope relative to each other. The dehumidifier system, or portions thereof, may include one or more stacking structures. The dehumidifier system, or portions thereof, may include a pump pick-up.

Abstract: A dehumidifier without a condensate tank is provided. The dehumidifier may include a housing, one or more outlets, and no condensate tank. The dehumidifier may be positioned directly above a floor drain and/or a drain within a utility sink during operation. The dehumidifier may include a pump. The dehumidifier may include one or more sensors.

Abstract: A dehumidifier system is provided. The dehumidifier system may include a condensate tank and a dehumidifier. The dehumidifier may be positionable between at least one deployed position and at least one stowed position relative to the condensate tank. The condensate tank and the dehumidifier may telescope relative to each other. The dehumidifier system, or portions thereof, may include one or more stacking structures.

Abstract: A dehumidifier system is provided. The dehumidifier system may include a condensate tank and a dehumidifier. The dehumidifier may be positionable between at least one deployed position and at least one stowed position relative to the condensate tank. The condensate tank and the dehumidifier may telescope relative to each other. The dehumidifier system, or portions thereof, may include one or more stacking structures.

Abstract: A packaged terminal air conditioner unit (PTAC) and methods for operating the same are provided. The PTAC includes a vent aperture defined in a bulkhead of the PTAC through which make-up air may flow. An indoor fan urges a flow of primary make-up air at a primary flow rate and an auxiliary fan urges a flow of auxiliary make-up air at an auxiliary flow rate. A controller determines a target make-up air flow rate, e.g., based on a user setting which is determined from building code calculations factoring in expected room occupancy, room size, and other factors. The controller then operates the auxiliary fan to urge the flow of auxiliary make-up air at the auxiliary flow rate which is substantially equivalent to the target make-up air flow rate minus the primary flow rate.

Abstract: An air conditioner unit and thermostat assembly are provided herein. The air conditioner unit may include an outdoor heat exchanger assembly, an indoor heat exchanger assembly, a compressor, a bulkhead, a first resettable thermostat, a second resettable thermostat, and a one-shot thermostat. The first resettable thermostat may be positioned within an indoor portion. The first resettable thermostat may be configured to regulate a temperature within the air conditioner unit. The second resettable thermostat may be positioned within the indoor portion. The second resettable thermostat may be spaced apart from the first resettable thermostat along a lateral direction. The one-shot thermostat may be positioned within the indoor portion between the first resettable thermostat and the second resettable thermostat along a lateral direction.

Abstract: A packaged terminal air conditioner unit (PTAC) and methods of operating the same are provided. The PTAC includes a bulkhead having a vent aperture through which an auxiliary fan urges a flow of make-up air into the room and a vent door for controlling the flow of make-up air. A method for detecting the position of the vent door includes operating the auxiliary fan at a first power level to reach a target speed, switching the position of the vent door, and operating the auxiliary fan at a second power level to maintain the target speed. The first power level and the second power level are compared to determine whether the vent door is in the open position or the closed position, with an increased power level indicating that the door is closed and a decreased power level indicating that the door is open.

Abstract: A packaged terminal air conditioner unit (PTAC) and methods for operating the same are provided. The PTAC includes a vent aperture defined in a bulkhead of the PTAC through which make-up air may flow. An indoor fan urges a flow of primary make-up air at a primary flow rate and an auxiliary fan urges a flow of auxiliary make-up air at an auxiliary flow rate. A controller determines a target make-up air flow rate, e.g., based on a user setting which is determined from building code calculations factoring in expected room occupancy, room size, and other factors. The controller then operates the auxiliary fan to urge the flow of auxiliary make-up air at the auxiliary flow rate which is substantially equivalent to the target make-up air flow rate minus the primary flow rate.

Abstract: A packaged terminal air conditioner unit (PTAC) and methods of operating the same are provided. The PTAC includes a bulkhead having a vent aperture through which an auxiliary fan urges a flow of make-up air into the room and a vent door for controlling the flow of make-up air. A method for detecting the position of the vent door includes operating the auxiliary fan at a first power level to reach a target speed, switching the position of the vent door, and operating the auxiliary fan at a second power level to maintain the target speed. The first power level and the second power level are compared to determine whether the vent door is in the open position or the closed position, with an increased power level indicating that the door is closed and a decreased power level indicating that the door is open.