Abstract: According to certain embodiments, a thermostat is configured for use in a climate control system. The thermostat is operable to use two-way communication for communicating operational information between the thermostat and at least one rooftop unit (RTU) within the climate control system. For example, the two-way communication comprises sending first operational information to the RTU and receiving second operational information from the RTU. The operational information comprising one or more climate control commands, setpoints, configuration information, diagnostics, and/or sensor data. The thermostat is further operable to operate the climate control system based on the operational information communicated between the thermostat and the RTU.

Abstract: According to certain embodiments, a thermostat is configured for use in a climate control system. The thermostat is operable to use two-way communication for communicating operational information between the thermostat and at least one rooftop unit (RTU) within the climate control system. For example, the two-way communication comprises sending first operational information to the RTU and receiving second operational information from the RTU. The operational information comprising one or more climate control commands, setpoints, configuration information, diagnostics, and/or sensor data. The thermostat is further operable to operate the climate control system based on the operational information communicated between the thermostat and the RTU.

Abstract: According to certain embodiments, a thermostat is configured for use in a climate control system. The thermostat is operable to use two-way communication for communicating operational information between the thermostat and at least one rooftop unit (RTU) within the climate control system. For example, the two-way communication comprises sending first operational information to the RTU and receiving second operational information from the RTU. The operational information comprising one or more climate control commands, setpoints, configuration information, diagnostics, and/or sensor data. The thermostat is further operable to operate the climate control system based on the operational information communicated between the thermostat and the RTU.

Abstract: According to certain embodiments, a device is configured for use in a climate control system. The device is operable to determine, based on configuration information, whether thermostat functionality of the device is enabled or disabled and whether sensor functionality of the device is enabled or disabled. The device is further operable to operate according to the configuration information. Thus, according to certain embodiments, the device can be configured as a thermostat, a sensor, or both.

Abstract: According to certain embodiments, a controller is operable to instruct a climate control system to operate according to an occupied mode or an unoccupied mode based on a pre-defined schedule. The occupied mode uses pre-defined settings associated with an occupied status, and the unoccupied mode uses pre-defined settings associated with an unoccupied status. The controller is operable to receive an indication that an occupancy sensor detects a space as being occupied. In response to receiving the indication when the pre-defined schedule requires the climate control system to operate in the unoccupied mode, the controller is operable to instruct the climate control system to use the pre-defined settings associated with the occupied status during an override time period.

Abstract: A controller configured to communicatively couple to at least two sets of equipment. At least one set of equipment includes heating, ventilation, and air conditioning (HVAC) equipment, refrigeration equipment, or building automation equipment. For each set of equipment, the controller determines an operation schedule for the respective set of equipment. The controller also communicates the operation schedule to the respective set of equipment, for each set of equipment. The controller may receive a request to perform mass scheduling. The request indicates which sets of equipment and which settings of the operation schedule are to be configured using the mass scheduling. The controller may also communicate the same values for the settings that the request indicates to configure using the mass scheduling to each set of equipment that the request indicates to configure using the mass scheduling.

Abstract: An equipment management system including a controller and a server. The controller communicatively couples to one or more remote systems. At least one of the remote systems includes a heating, ventilation, and air conditioning (HVAC) system, a refrigeration system, or a building automation system. The controller receives telemetry data associated with the operation of the one or more remote systems and with individual components of the one or more remote systems. The controller communicates at least a portion of the received telemetry data to the server. The server determines one or more operational commands for the one or more remote systems. The one or more operational commands are determined based on the telemetry data communicated from the controller to the server. The server communicates the one or more operational commands to the controller. The controller communicates the one or more operational commands to the one or more remote systems.

Abstract: A controller configured to communicatively couple to at least two sets of equipment. At least one set of equipment includes heating, ventilation, and air conditioning (HVAC) equipment, refrigeration equipment, or building automation equipment. For each set of equipment, the controller determines an operation schedule for the respective set of equipment. The controller also communicates the operation schedule to the respective set of equipment, for each set of equipment. The controller may receive a request to perform mass scheduling. The request indicates which sets of equipment and which settings of the operation schedule are to be configured using the mass scheduling. The controller may also communicate the same values for the settings that the request indicates to configure using the mass scheduling to each set of equipment that the request indicates to configure using the mass scheduling.

Abstract: An equipment management system including a controller and a server. The controller communicatively couples to one or more remote systems. At least one of the remote systems includes a heating, ventilation, and air conditioning (HVAC) system, a refrigeration system, or a building automation system. The controller receives telemetry data associated with the operation of the one or more remote systems and with individual components of the one or more remote systems. The controller communicates at least a portion of the received telemetry data to the server. The server determines one or more operational commands for the one or more remote systems. The one or more operational commands are determined based on the telemetry data communicated from the controller to the server. The server communicates the one or more operational commands to the controller. The controller communicates the one or more operational commands to the one or more remote systems.

Abstract: According to certain embodiments, a device is configured for use in a climate control system. The device is operable to determine, based on configuration information, whether thermostat functionality of the device is enabled or disabled and whether sensor functionality of the device is enabled or disabled. The device is further operable to operate according to the configuration information. Thus, according to certain embodiments, the device can be configured as a thermostat, a sensor, or both.

Abstract: According to certain embodiments, a controller is operable to instruct a climate control system to operate according to an occupied mode or an unoccupied mode based on a pre-defined schedule. The occupied mode uses pre-defined settings associated with an occupied status, and the unoccupied mode uses pre-defined settings associated with an unoccupied status. The controller is operable to receive an indication that an occupancy sensor detects a space as being occupied. In response to receiving the indication when the pre-defined schedule requires the climate control system to operate in the unoccupied mode, the controller is operable to instruct the climate control system to use the pre-defined settings associated with the occupied status during an override time period.

Abstract: According to certain embodiments, a thermostat is configured for use in a climate control system. The thermostat is operable to use two-way communication for communicating operational information between the thermostat and at least one rooftop unit (RTU) within the climate control system. For example, the two-way communication comprises sending first operational information to the RTU and receiving second operational information from the RTU. The operational information comprising one or more climate control commands, setpoints, configuration information, diagnostics, and/or sensor data. The thermostat is further operable to operate the climate control system based on the operational information communicated between the thermostat and the RTU.

Abstract: In an embodiment, a mobile device for operating a HVAC unit is provided. The mobile device is configured to provide a graphical user interface to the HVAC unit. The mobile device is further configured to receive user input for performing a function of the HVAC unit and to instruct the HVAC unit to perform the function.

Abstract: This disclosure presents a controller for use with a HVAC system that has a program stored therein that is configured to relate a torque of a fan motor of a HVAC system with an airflow rate of the HVAC system, such that a selected airflow rate will cause the fan motor to operate at a torque that will produced the selected airflow rate.