Abstract: An HVAC controller is described that is configured to be more intuitive and user friendly to program and operate than convention HVAC controllers. In some instances, the HVAC controller may include a touch screen interface that provides greater flexibility in displaying information to the user and/or soliciting information from the user.

Abstract: A thermostat system having dedicated informational regions in a display and associated buttons or softkeys for sequential operation. The system may maximize utilization of a sectioned display and buttons for system navigation. The informational, selection and/or action design takes into consideration operational button groupings for straightforward comfort settings as well as editing of the clock, day-of-week, schedules, and so forth. Sections, regions or areas of the display may indicate immediate button operations. The changeable information in the regions associated with the softkeys or buttons may provide sequential operation of the thermostat system. The system may have multiple schedules and setpoints for heating and cooling comfort setting flexibility. A combining of individual schedules may be automatically selected. Also, there may be a system switch mode, for example, between heat and cool, where the schedules may be individually edited.

Abstract: A thermostatic control system having a configurable lock mechanism. The mechanism may be for preventing unauthorized or unintended operation of the thermostatic control system. The system may have a manual or an automatic lock out. If the manual or automatic lock out is not effected, the system may be configured to automatically effect a lock out after a certain period of time. To remove the lock out may require a coded entry. The lock out may be full or partial with respect to the functionality of the system. The lock out mechanism may be applicable to a wireless remote control of a thermostatic system; however, it may also be applicable, for instance, to a wall module thermostat.

Abstract: An equipment interface module that can operate one or more pieces of HVAC equipment in accordance with instructions received from a properly operating thermostat, yet can also operate the HVAC equipment when communications between the thermostat and the HVAC controller are lost due to, for example, low battery power at the thermostat, malfunctioning thermostat sensor(s), malfunctioning communication and/or thermostat circuitry, electrical interference, and the like. In some instances, the equipment interface module may regulate the HVAC equipment in accordance with a signal from a remote sensor when communication with the thermostat is lost.

Abstract: An equipment interface module that can operate one or more pieces of HVAC equipment in accordance with instructions received from a properly operating thermostat, yet can also operate the HVAC equipment when communications between the thermostat and the HVAC controller are lost due to, for example, low battery power at the thermostat, malfunctioning thermostat sensor(s), malfunctioning communication and/or thermostat circuitry, electrical interference, and the like. In some instances, the equipment interface module may regulate the HVAC equipment in accordance with a signal from a remote sensor when communication with the thermostat is lost.

Abstract: An HVAC controller includes an HVAC controller housing having an aperture and a removable battery tray disposed within the aperture. The removable battery tray includes a pivot point for rotating the battery tray into and out of the aperture.

Abstract: Methods of providing dehumidification control in unoccupied spaces are disclosed. An illustrative method can include the steps of providing a controller having an away mode of operation adapted to provide dehumidification within the interior space of a building or room, providing one or more system components adapted to control the humidity and/or temperature within the interior space, initiating the away mode of operation within the controller, and operating the one or more system components for at least one cycle to reduce the humidity within the interior space.

Abstract: Methods of providing dehumidification control in unoccupied spaces are disclosed. An illustrative method can include the steps of providing a controller having an away mode of operation adapted to provide dehumidification within the interior space of a building or room, providing one or more system components adapted to control the humidity and/or temperature within the interior space, initiating the away mode of operation within the controller, and operating the one or more system components for at least one cycle to reduce the humidity within the interior space.

Abstract: An equipment interface module that can operate one or more pieces of HVAC equipment in accordance with instructions received from a properly operating thermostat, yet can also operate the HVAC equipment when communications between the thermostat and the HVAC controller are lost due to, for example, low battery power at the thermostat, malfunctioning thermostat sensor(s), malfunctioning communication and/or thermostat circuitry, electrical interference, and the like. In some instances, the equipment interface module may regulate the HVAC equipment in accordance with a signal from a remote sensor when communication with the thermostat is lost.

Abstract: Systems and methods for the auxiliary stage control of multistage thermostats are disclosed. An illustrative multistage thermostat for a multistaged HVAC system installed within a building or structure can include a processor having a control algorithm adapted to operate the thermostat in either a normal mode for achieving rapid temperature changes within the building or structure or an economy mode for conserving energy usage. In the economy mode of operation, the thermostat can be configured to determine a target time for achieving a temperature setpoint by either delaying or suppressing activation of the system's auxiliary stage. The target time can be adjusted in part based on the past usage characteristics of the auxiliary stage, the behavior of the user, and/or the progress of the primary stage in achieving the setpoint change without operating the auxiliary stage.

Abstract: A thermostat system having dedicated informational regions in a display and associated buttons or softkeys for sequential operation. The system may maximize utilization of a sectioned display and buttons for system navigation. The informational, selection and/or action design takes into consideration operational button groupings for straightforward comfort settings as well as editing of the clock, day-of-week, schedules, and so forth. Sections, regions or areas of the display may indicate immediate button operations. The changeable information in the regions associated with the softkeys or buttons may provide sequential operation of the thermostat system. The system may have multiple schedules and setpoints for heating and cooling comfort setting flexibility. A combining of individual schedules may be automatically selected. Also, there may be a system switch mode, for example, between heat and cool, where the schedules may be individually edited.

Abstract: A thermostat system having dedicated informational regions in a display and associated buttons or softkeys for sequential operation. The system may maximize utilization of a sectioned display and buttons for system navigation. The informational, selection and/or action design takes into consideration operational button groupings for straightforward comfort settings as well as editing of the clock, day-of-week, schedules, and so forth. Sections, regions or areas of the display may indicate immediate button operations. The changeable information in the regions associated with the softkeys or buttons may provide sequential operation of the thermostat system. The system may have multiple schedules and setpoints for heating and cooling comfort setting flexibility. A combining of individual schedules may be automatically selected. Also, there may be a system switch mode, for example, between heat and cool, where the schedules may be individually edited.

Abstract: A thermostat system having dedicated informational regions in a display and associated buttons or softkeys for sequential operation. The system may maximize utilization of a sectioned display and buttons for system navigation. The informational, selection and/or action design takes into consideration operational button groupings for straightforward comfort settings as well as editing of the clock, day-of-week, schedules, and so forth. Sections, regions or areas of the display may indicate immediate button operations. The changeable information in the regions associated with the softkeys or buttons may provide sequential operation of the thermostat system. The system may have multiple schedules and setpoints for heating and cooling comfort setting flexibility. A combining of individual schedules may be automatically selected. Also, there may be a system switch mode, for example, between heat and cool, where the schedules may be individually edited.

Abstract: An HVAC controller is described that is configured to be more intuitive and user friendly to program and operate than convention HVAC controllers. In some instances, the HVAC controller may include a touch screen interface that provides greater flexibility in displaying information to the user and/or soliciting information from the user.

Abstract: A building controller for controlling the comfort level in a building is described. The building controller may include a thermostat and wireless remote controller for communicating with the thermostat from a remote location. The thermostat may have access to a first temperature sensor for sensing a first temperature, sometimes at or near the thermostat. The remote controller may likewise have a second temperature sensor for sensing a second temperature, sometimes at or near the remote controller. Under some conditions, the thermostat may use the second temperature sensed by the remote controller to control the comfort level in a building unless or until a predetermined condition is detected, after which the thermostat may use a different temperature, such as the first temperature at or near the thermostat, to control the comfort level in a building.

Abstract: An HVAC remote controller for use in an HVAC system is described. In some instances, the HVAC remote controller may include a wireless interface for communicating with one or more HVAC controllers and/or other HVAC devices. The HVAC remote control unit may be configured to display two or more option on a display, wherein the user may be allowed to select one of the two or more options resulting in a selected option. The HVAC remote control unit may display a visual cue for the selected option that visually distinguishes the selected option from the remaining options. The visual cue may include a different border for the selected option than the remaining options and/or a marker within or adjacent to the border. It is also contemplated that a similar visual cue may be used in conjunction with an HVAC controller display, if desired.

Abstract: An HVAC remote control unit for use in an HVAC system is described. In some instances, an HVAC remote control unit may be provided that wirelessly communicates with two or more HVAC controllers and/or other HVAC devices in a zoned HVAC system. When so provided, the remote control unit may be configured to allow a user to select between two or more zones of the zoned HVAC system, and to load one or more of the parameters and/or settings associated with a selected zone via the wireless interface. The remote control unit may be further configured to display at least one of the received parameters and/or settings on a display of the remote control unit, and a user may be allowed to change one or more of the parameters and/or settings that are displayed on the display for a selected zone. The zoned HVAC system may subsequently operate in accordance with the one or more changed parameters and/or settings in the selected zone.

Abstract: An HVAC remote controller for use in an HVAC system is described. In some instances, the HVAC remote controller may include a wirelessly interface for communicating with one or more HVAC controllers and/or other HVAC devices. The HVAC remote controller may be configured to automatically determine whether the HVAC system is a zoned HVAC system or a non-zoned HVAC system, and operate accordingly.

Abstract: An HVAC remote controller for use in an HVAC system is described. In some instances, the HVAC remote controller may include a wirelessly interface for communicating with one or more HVAC controllers and/or other HVAC devices. The HVAC remote controller may be configured to execute a user setup routine for entering user setup information, where the user setup routine may cause the HVAC remote controller to display a sequence of two or more user setup screens, sometimes at a common menu level rather than a sub-menu. Some or all of the two or more user setup screens may include, for example, a message center indicating a parameter or function to be set, one or more buttons for adjusting or selecting the parameter or function, and a next button to advance the user setup routine to a next screen in the sequence of user setup screens.

Abstract: A thermostatic control system having a configurable lock mechanism. The mechanism may be for preventing unauthorized or unintended operation of the thermostatic control system. The system may have a manual or an automatic lock out. If the manual or automatic lock out is not effected, the system may be configured to automatically effect a lock out after a certain period of time. To remove the lock out may require a coded entry. The lock out may be full or partial with respect to the functionality of the system. The lock out mechanism may be applicable to a wireless remote control of a thermostatic system; however, it may also be applicable, for instance, to a wall module thermostat.