Abstract: An HVAC controller for controlling an HVAC system may be configured to enroll one or more wireless devices, and once one or more wireless devices are enrolled, to prompt the user to enter an identifier, a location, a device type and/or a function for one or more of the enrolled wireless devices. The HVAC controller may use the identifier, location and/or device type to identify each of the enrolled devices. This may facilitate a user in selecting various sensors to participate in sensor averaging, identifying where certain sensor data is originating, identifying devices having a low battery condition, as well as performing other tasks as desired.

Abstract: An HVAC controller may include a user interface, along with a memory for storing a recurring programmable schedule having two or more time periods. The user interface may be configured to allow manual modification by a user of the recurring schedule stored in the memory, wherein the user can associate an HVAC-off control mode with any of the two or more time periods. In the HVAC-off control mode, the HVAC controller may not cycle the HVAC unit on regardless of the temperature of the air in the inside space. The HVAC controller further may include an output that is configured to issue operational commands to the HVAC unit in accordance with the programmable schedule.

Abstract: An HVAC controller for controlling an HVAC system may be configured to enroll one or more wireless devices, and once one or more wireless devices are enrolled, to prompt the user to enter an identifier, a location, a device type and/or a function for one or more of the enrolled wireless devices. The HVAC controller may use the identifier, location and/or device type to identify each of the enrolled devices. This may facilitate a user in selecting various sensors to participate in sensor averaging, identifying where certain sensor data is originating, identifying devices having a low battery condition, as well as performing other tasks as desired.

Abstract: An HVAC system includes an HVAC unit having a cooling mode and a heating mode for conditioning the air in an inside space, and a programmable thermostat located remotely from the HVAC unit. The HVAC unit may have an onboard controller configured to control when the HVAC unit is in the cooling mode or heating mode, and whether the HVAC unit is activated or not. In some cases, the onboard controller of the HVAC unit may use a common temperature setpoint when controlling in the cooling mode and the heating mode. The programmable thermostat may have a programmable schedule with a plurality of time periods, where each time period has a heating setpoint and a cooling setpoint separated by a dead band. The onboard controller of the HVAC unit may be configured to accept input signals from the remotely located thermostat.

Abstract: Devices, methods, and systems for multi-user commissioning are described herein. One system includes a mobile computing device comprising computer readable instructions stored thereon that are executable by a processor to: retrieve configuration data for a physical controller from a remote database, install the configuration data on the physical controller, receive data associated with a status of the physical controller after the configuration data is installed on the physical controller, and synchronize the data associated with the status of the physical controller with the remote database.

Abstract: Devices, systems, and methods for controller programming migration automation are described herein. One device includes instructions executable to receive controller programming information associated with a first controller of a building system, wherein the received controller programming information is of a first information type, convert the received controller programming information to a second information type associated with a second controller of the building system, based, at least in part, on a set of conversion rules particular to the first controller and the second controller, and generate a report including information associated with the conversion.

Abstract: Methods, devices, and systems for hardware migration are described herein. One device includes a top housing, a plurality of input/output (I/O) adapter boards housed by the top housing, a base housing adjacent to the top housing, and a printed circuit board (PCB) base adjacent to the plurality of I/O adapter boards and housed by the base housing, wherein the plurality of I/O adapter boards are electrically connected to the PCB base, and the PCB base includes a plurality of traces configured to provide an electrical path for inputs from a wiring baseboard of an existing controller to the plurality of I/O adapter boards.

Abstract: Devices, systems, and methods for point-to-point checkout automation are described herein. One device includes a controller of a building system comprising logic to receive a command to perform a point-to-point (PTP) check, and perform the PTP check in response to receiving the command, wherein performing the PTP check includes identifying input/output (I/O) points associated with the controller, scanning each I/O point for a particular functionality based on an I/O type of that I/O point, and determining whether a result of each respective scan is within an expected range for its particular functionality.

Abstract: Devices, methods, and systems for water balancing are described herein. An example device can include a memory and a processor configured to execute executable instructions stored in the memory. The instructions can be executed to send a command from a building controller to balance a subset of a plurality of valves. The instructions can be executed to simultaneously balance the subset of the plurality of valves associated with a plurality of building systems, based on the command, and without accessing any of the plurality of valves individually.

Abstract: Devices, systems, and methods for building system commissioning automation are described herein. One device includes a controller of a plurality of building system devices having logic to receive a set of commands specified by a sequence of operations (SOO) script, execute the set of commands to run an SOO check on the plurality of building system devices, and generate a report including results of the SOO check.

Abstract: Systems, devices, and methods for building system controller configuration propagation are described herein. One system includes a first plant controller configured to control a plurality of controllers of a building system on a first channel, wherein one of the plurality of controllers on the first channel is a master controller, and a subset of the plurality of controllers on the first channel are follower controllers of the master controller, a second plant controller configured to control a plurality of controllers of the building system on a second channel, wherein a subset of the plurality of controllers on the second channel are follower controllers of the master controller, and a computing device in communication with the first plant controller and the second plant controller and configured to receive an indication of a parameter modification made to the master controller and communicate the parameter modification to the second plant controller.

Abstract: An HVAC system includes an HVAC unit having a cooling mode and a heating mode for conditioning the air in an inside space, and a programmable thermostat located remotely from the HVAC unit. The HVAC unit may have an onboard controller configured to control when the HVAC unit is in the cooling mode or heating mode, and whether the HVAC unit is activated or not. In some cases, the onboard controller of the HVAC unit may use a common temperature setpoint when controlling in the cooling mode and the heating mode. The programmable thermostat may have a programmable schedule with a plurality of time periods, where each time period has a heating setpoint and a cooling setpoint separated by a dead band. The onboard controller of the HVAC unit may be configured to accept input signals from the remotely located thermostat.

Abstract: An HVAC controller is configured to log and record performance related data related to a performance of an HVAC system over a period of time in one or more performance logs stored in a memory of the HVAC controller. In some cases, the HVAC controller may be configured to retrieve at least some of the performance related data from the performance log that corresponds to a selected period of time that may be selected by a user, and display the retrieved performance related data on a display of the HVAC controller.

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 programmable thermostat may be configured to control one or more pieces of HVAC equipment in accordance with a programmable schedule. The HVAC equipment may be capable of modifying a temperature of an inside space with at least a primary stage and an auxiliary stage. The programmable thermostat may include a memory for storing operating parameters of the programmable thermostat, a user interface configured to accept modification of operating parameters, including one or more droop values, and a controller coupled to the memory and the user interface. The controller attempts to control the temperature of the inside space with the primary stage of the HVAC equipment, but if the temperature of the inside space deviates from a desired setpoint temperature value by more than or equal to a programmed droop value, the controller may activate the auxiliary stage.

Abstract: An HVAC controller for controlling an HVAC system may be configured to enroll one or more wireless devices, and once one or more wireless devices are enrolled, to prompt the user to enter an identifier, a location, a device type and/or a function for one or more of the enrolled wireless devices. The HVAC controller may use the identifier, location and/or device type to identify each of the enrolled devices. This may facilitate a user in selecting various sensors to participate in sensor averaging, identifying where certain sensor data is originating, identifying devices having a low battery condition, as well as performing other tasks as desired.

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 HVAC controller for controlling an HVAC system may be configured to enroll one or more wireless devices, and once one or more wireless devices are enrolled, to prompt the user to enter an identifier, a location, a device type and/or a function for one or more of the enrolled wireless devices. The HVAC controller may use the identifier, location and/or device type to identify each of the enrolled devices. This may facilitate a user in selecting various sensors to participate in sensor averaging, identifying where certain sensor data is originating, identifying devices having a low battery condition, as well as performing other tasks as desired.

Abstract: A building control network may have a first central device, a second central device and one or more peripheral devices. An illustrative method may include placing the second central device into an associate mode, and sending an associate command from a perimeter device to associate the perimeter device with the second central device. The associate command may be received by the first central device. The first central device may send one or more commands to the second central device, where the one or more commands may cause the second central device to be taken out of its associate mode and to reconfigure the second central device to a perimeter device. The first central device may then be put in an associate mode, and both the second central device and the perimeter device may be associated as perimeter devices with the first central device.

Abstract: An example wall-mountable HVAC controller may include a controller module and a wall plate, with a hinge that allows the controller module to rotate relative to the wall plate. The hinge may provide an end stop that limits the rotation of the controller module relative to the wall plate, and/or may allow the controller module to be freely pulled away and disengaged from the wall plate if desired.