Abstract: In some examples, a method includes receiving, from a carbon-monoxide (CO) sensor, an indication of an above-threshold level of CO for an above-threshold amount of time; determining, from a plurality of appliances, a subset of appliances associated with the CO sensor; and deactivating the subset of appliances.

Abstract: In some examples, a method includes receiving, from a carbon-monoxide (CO) sensor, an indication of an above-threshold level of CO for an above-threshold amount of time; determining, from a plurality of appliances, a subset of appliances associated with the CO sensor; and deactivating the subset of appliances.

Abstract: A battery life monitoring approach for a power transformation powered system. “Signature profiling” and “power metering” may deal with statistically significant edge cases. Relative to product resources, a battery management module (BMM) may use software services from a “phantom module”, “power broker” and other low level board support package (BSP) software, such as A2D, time bases and memory R/W in order to execute routines needed for successful deployment of the product. The memory resources should be volatile and non-volatile memory resources to fulfill the needs of a fully functional power transformation BMM system.

Abstract: A method of modifying a programmable schedule for a controller and a controller are disclosed having a user interface. The method includes the steps of providing, simultaneously or sequentially, two or more schedule override choices to a user via the user interface, accepting a selection of one of the two or more schedule override choices from the user via the user interface, and modifying temporarily the schedule based on the user responses provided by the user interface.

Abstract: A controller equipped with a user interface having a separate schedule review mode, including methods of accessing and/or programming such devices, are disclosed. The controller may include a user interface that can be utilized to initiate a scheduling routine having a separate schedule review mode for displaying one or more schedule parameters of the controller without initiating the editing mode. An illustrative method of accessing a schedule on a controller coupled to a user interface may include the steps of initializing a scheduling routine within the controller, initiating a schedule review mode within the controller, displaying one or more schedule parameters for at least one period on the user interface, and exiting the scheduling routine. One or more of the schedule parameters can be modified, if desired, by initiating a separate editing mode within the controller.

Abstract: Controllers and methods are disclosed for aiding a user in programming a schedule of a programmable controller. In an illustrative embodiment, a guided programming routine can be activated by a user, which then guides a user through two or more screens that are designed to collect sufficient information from the user to generate and/or update at least some of the schedule parameters of the controller.

Abstract: A programmable controller for homes and/or buildings and their related grounds, such as thermostat, that has a display and an external interface. The external interface may be use for uploading electronic images and/or other information from an external data source, and may use the uploaded electronic images and/or other information for programming and/or updating the controller and/or for viewing the electronic images and/or other information on the display of the controller.

Abstract: Methods and systems for setting up HVAC controllers for a particular installation site are disclosed. In an example, an HVAC controller may be configured to control at least part of an HVAC system in accordance with an algorithm that includes equipment information pertaining to operation of the specific HVAC equipment forming the HVAC system as well as comfort information such as desired temperatures. In some cases, the HVAC controller may be configured to enable display of certain of the equipment information in a read-only fashion, and in some cases, certain of the equipment information that would be of interest to an building inspector.

Abstract: A mobile wireless device (e.g. smart phone) may be used to remotely control an HVAC system. A program code stored in the memory of the mobile wireless device may cause the mobile wireless device to store geographic information in the memory of the mobile wireless device, monitor a location of the mobile wireless device, and compare the stored geographic information to the location of the mobile wireless device. If the comparison meets predetermined criteria, the program code may cause the mobile wireless device to transmit a command either directly or indirectly to an HVAC controller, causing the HVAC controller to transition from a first operating state having a first temperature setpoint to a second operating state having a second temperature setpoint.

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: Methods and systems for setting up HVAC controllers for a particular installation site are disclosed. In an example, an HVAC controller may be configured to control at least part of an HVAC system in accordance with an algorithm that includes equipment information pertaining to operation of the specific HVAC equipment forming the HVAC system as well as comfort information such as desired temperatures. In some cases, the HVAC controller may be configured to enable display of certain of the equipment information in a read-only fashion, and in some cases, certain of the equipment information that would be of interest to an building inspector.

Abstract: Controllers and methods are disclosed for aiding a user in programming a schedule of a programmable controller. In an illustrative embodiment, a guided programming routine can be activated by a user, which then guides a user through two or more screens that are designed to collect sufficient information from the user to generate and/or update at least some of the schedule parameters of the controller.

Abstract: Controllers and methods are disclosed for aiding a user in programming a schedule of a programmable controller. In an illustrative embodiment, a guided programming routine can be activated by a user, which then guides a user through two or more screens that are designed to collect sufficient information from the user to generate and/or update at least some of the schedule parameters of the controller.

Abstract: A controller equipped with a user interface having a separate schedule review mode, including methods of accessing and/or programming such devices, are disclosed. The controller may include a user interface that can be utilized to initiate a scheduling routine having a separate schedule review mode for displaying one or more schedule parameters of the controller without initiating the editing mode. An illustrative method of accessing a schedule on a controller coupled to a user interface may include the steps of initializing a scheduling routine within the controller, initiating a schedule review mode within the controller, displaying one or more schedule parameters for at least one period on the user interface, and exiting the scheduling routine. One or more of the schedule parameters can be modified, if desired, by initiating a separate editing mode within the controller.

Abstract: A thermostat including a controller operates to provide a guided programming sequence of two or more screens to a display. The guided sequence of screens prompts the user to provide system configuration information for updating the system configuration and providing a system summary screen.

Abstract: A battery life monitoring approach for a power transformation powered system. “Signature profiling” and “power metering” may deal with statistically significant edge cases. Relative to product resources, a battery management module (BMM) may use software services from a “phantom module”, “power broker” and other low level board support package (BSP) software, such as A2D, time bases and memory R/W in order to execute routines needed for successful deployment of the product. The memory resources should be volatile and non-volatile memory resources to fulfill the needs of a fully functional power transformation BMM system.

Abstract: A mobile wireless device (e.g. smart phone) may be used to remotely control an HVAC system. A program code stored in the memory of the mobile wireless device may cause the mobile wireless device to store geographic information in the memory of the mobile wireless device, monitor a location of the mobile wireless device, and compare the stored geographic information to the location of the mobile wireless device. If the comparison meets predetermined criteria, the program code may cause the mobile wireless device to transmit a command either directly or indirectly to an HVAC controller, causing the HVAC controller to transition from a first operating state having a first temperature setpoint to a second operating state having a second temperature setpoint.

Abstract: A mobile wireless device (e.g. smart phone) may be used to remotely control an HVAC system. A program code stored in the memory of the mobile wireless device may cause the mobile wireless device to store geographic information in the memory of the mobile wireless device, monitor a location of the mobile wireless device, and compare the stored geographic information to the location of the mobile wireless device. If the comparison meets predetermined criteria, the program code may cause the mobile wireless device to transmit a command either directly or indirectly to an HVAC controller, causing the HVAC controller to transition from a first operating state having a first temperature setpoint to a second operating state having a second temperature setpoint.

Abstract: A programmable controller for homes and/or buildings and their related grounds, such as thermostat, that has a display and an external interface. The external interface may be use for uploading electronic images and/or other information from an external data source, and may use the uploaded electronic images and/or other information for programming and/or updating the controller and/or for viewing the electronic images and/or other information on the display of the controller.

Abstract: Controllers and methods are disclosed for aiding a user in programming a schedule of a programmable controller. In an illustrative embodiment, a guided programming routine can be activated by a user, which then guides a user through two or more screens that are designed to collect sufficient information from the user to generate and/or update at least some of the schedule parameters of the controller.