Abstract: A humidifier system includes a base module comprising a wet-pack assembly, a fan module or a bypass module structured to draw air through the base module, and a cover assembly structured to couple to each of the base module and the fan module or the bypass module, where the cover assembly is structured to retain the wet-pack assembly within the base module.

Abstract: A whole building air quality control system includes an indoor air quality (IAQ) component having at least one control state, a plurality of sensors configured to measure a plurality of building conditions of a building space, and a controller communicably coupled to the IAQ component and the plurality of sensors. The controller includes memory storing a desired air quality index (AQI). The AQI includes a categorical variable. The controller is configured to iteratively modify a control state of the IAQ component using a machine learning algorithm until the plurality of building conditions of the building space satisfy the desired AQI.

Abstract: A drain pan system for receiving, routing, and draining condensate from a dehumidifying, heating, ventilating, or air conditioning system is disclosed. The system includes a drain pan body that contains one or more walls to mitigate air flow and enable smooth condensate flow into, through, and out of the drain pan system.

Abstract: A humidity control system includes a humidification device configured to modify an indoor air humidity within a building and a humidity control device that is communicably coupled to the humidification device. The humidity control device is configured to receive a construction factor concerning a structure of the building, determine a plurality of indoor air humidity thresholds corresponding to a plurality of outdoor air temperatures based on the construction factor, receive a real-time outdoor air temperature, and control the humidification device to modify the indoor air humidity based on the plurality of indoor air humidity thresholds.

Abstract: A filter element for a heating, ventilation, and/or air conditioning (HVAC) system includes a filter media pack, a support element, and a magnetic material. The support element is configured to couple the filter media pack to a filter housing. The support element extends along a longitudinal direction from a first longitudinal end to a second longitudinal end. The magnetic material is disposed on the first longitudinal end of the support element. The magnetic material is configured to magnetically engage a second magnetic material of the filter housing to facilitate alignment between the a housing rail of the filter housing and the support element during installation of the support element into a filter housing.

Abstract: A filter element for a heating, ventilation, and/or air conditioning (HVAC) system includes a filter media and a support element. The support element includes a first interface member, a second interface member, and a connecting member. The first interface member and the second interface member define opposing lateral ends of the support element and extend parallel to one another. The first interface member and the second interface member are engageable with complementary receiving structures of a rail to support the support element on the rail. The connecting member is coupled to the filter media and extends from the first interface member to the second interface member. The connecting member includes a concave portion extending from the first interface member and a convex portion extending from the second interface member.

Abstract: A filter element for a heating, ventilation, and/or air conditioning (HVAC) system includes a filter media and a support element. The support element includes a first interface member, a second interface member, and a connecting member. The first interface member and the second interface member define opposing lateral ends of the support element and extend parallel to one another. The first interface member and the second interface member are engageable with complementary receiving structures of a rail to support the support element on the rail. The connecting member is coupled to the filter media and extends from the first interface member to the second interface member. The connecting member includes a concave portion extending from the first interface member and a convex portion extending from the second interface member.

Abstract: A dehumidifying system and method for reducing humidity in ambient air is disclosed. The system includes a circulation unit, a refrigeration unit, a condensate receptacle for receiving condensate generated by the refrigeration unit, a controller to control both the circulation and refrigeration units, and wherein the controller receives input from one or more ambient sensors configured to sense ambient conditions, and a user interface configured to receive input from a user. The system implements variable speed control within the circulation and/or refrigeration unit to maximize efficiency or capacity under a current threshold, and enables the system to delay the need for defrost cycling during low temperature operation.

Abstract: A filter element for a heating, ventilation, and/or air conditioning (HVAC) system includes a filter media pack and a first support element. The filter media pack includes a pleated filter media. The first support element includes a connecting member that is coupled to the pleated filter media and includes at least a portion of a curved wall that curves above a central axis that extends substantially parallel to an insertion direction of the filter element into a filter housing. The first interface member is located at a distal end of the connecting member and defines a first support ledge that is disposed over the connecting member and that extends substantially parallel to the insertion direction.

Abstract: A compressor fluidly couples to a condenser and an evaporator. A sensor is configured to detect a plurality of data points associated with the fluidic circuit. A controller is configured to store the plurality of data points associated with the fluidic circuit and a time associated with each of the data points. The controller can detect a plurality of deviations between the data points, each deviation comprising a magnitude and a temporal sequence. The controller can compare each of the plurality of deviations to a predefined threshold. The controller can determine, based on the comparison of the deviations to the predefined threshold, a condition indicative of an obstruction of an air flow circuit of the climate control system.

Abstract: A modular humidifier system includes a base module having a frame and a wet-pack assembly, the wet-pack assembly being enclosed in the frame. The humidifier system also includes a fan module structured to draw air through the base module and a cover assembly structured to couple to each of the fan module and the base module. The frame includes a first side and a second side, where the fan module is structured to selectively couple to either the first side or the second side.

Abstract: A filter element for a heating, ventilation, and/or air conditioning (HVAC) system includes a filter media and a support element. The support element includes a first interface member, a second interface member, and a connecting member. The first interface member and the second interface member define opposing lateral ends of the support element and extend parallel to one another. The first interface member and the second interface member are engageable with complementary receiving structures of a rail to support the support element on the rail. The connecting member is coupled to the filter media and extends from the first interface member to the second interface member. The connecting member includes a concave portion extending from the first interface member and a convex portion extending from the second interface member.

Abstract: A dehumidifying system and method for reducing humidity in ambient air is disclosed. The system includes a circulation unit, a refrigeration unit, a condensate receptacle for receiving condensate generated by the refrigeration unit, a controller to control both the circulation and refrigeration units, and wherein the controller receives input from one or more ambient sensors configured to sense ambient conditions, and a user interface configured to receive input from a user. The system implements variable speed control within the circulation and/or refrigeration unit to maximize efficiency or capacity under a current threshold, and enables the system to delay the need for defrost cycling during low temperature operation.

Abstract: A method of controlling indoor air humidity includes determining a dew point set point and determining a dew point of air from a space within a building. The method also includes, in response to determining that the dew point satisfies the dew point set point, determining a vent air dew point of air in an external environment surrounding the building. The method further includes, in response to determining that the vent air dew point is below the dew point set point by a dew point threshold, controlling a connecting member of a damper assembly to position a first damper of the damper assembly in an open position to draw in vent air from the external environment into the space, and to position a second damper of the damper assembly in a close position to substantially prevent recirculation of air through the dehumidifier.

Abstract: A humidity control system and method for controlling the humidity of ambient air is disclosed. The system includes a humidification and dehumidification systems to increase and/or decrease the humidity level of an indoor space and a sensor to sense ambient conditions of the space. The system further includes a controller that receives a humidity setpoint for the indoor space, determines the humidity level associated with the indoor space, compares the determined humidity level to the humidity setpoint, and causes activation of one of a humidification system or a dehumidification system. In response to causing the activation of one of the humidification or dehumidification system, the controller initiates a lockout condition during which the other of the one of the humidification or dehumidification system is prevented from activation. The controller also monitors for an override condition and enables activation of the other of the humidification system or the dehumidification system accordingly.

Abstract: A method of controlling indoor air humidity includes determining a dew point set point and determining a dew point of air from a space within a building. The method also includes, in response to determining that the dew point satisfies the dew point set point, determining a vent air dew point of air in an external environment surrounding the building. The method further includes, in response to determining that the vent air dew point is below the dew point set point by a dew point threshold, controlling a connecting member of a damper assembly to position a first damper of the damper assembly in an open position to draw in vent air from the external environment into the space, and to position a second damper of the damper assembly in a close position to substantially prevent recirculation of air through the dehumidifier.

Abstract: A humidity control system includes a humidification device configured to modify an indoor air humidity within a building and a humidity control device that is communicably coupled to the humidification device. The humidity control device is configured to receive a construction factor concerning a structure of the building, determine a plurality of indoor air humidity thresholds corresponding to a plurality of outdoor air temperatures based on the construction factor, receive a real-time outdoor air temperature, and control the humidification device to modify the indoor air humidity based on the plurality of indoor air humidity thresholds.