Abstract: A virtual controller is configured to send control commands to an edge controller such as in I/O module that is connected to a building management system component. The IO module is configured to communicate with the virtual controller and to provide local control commands to the building management system component that are based upon the control commands from the virtual controller when communication with the virtual controller is determined by the IO module to be functioning normally and are based upon one or more fail-safe commands generated by the IO module when communication with the virtual controller is determined by the IO module to not be functioning normally.

Abstract: A method of assigning IP addresses to devices of a building control network includes receiving a selection of selected devices of a plurality of devices from a user interface. The selected devices are displayed in a predetermined order on a display. A proposed static IP address for a first device in the predetermined order of the selected devices is received from the user interface. A static IP address is sequentially assigned to each of the selected devices following the first device in accordance with the predetermined order, assuming the subnet mask has been confirmed as valid. The selected devices in the predetermined order along with the assigned static IP addresses for each of the selected devices are displayed on the display. The assigned static IP address for each of the selected devices are downloaded to the corresponding one of the selected devices.

Abstract: A control system for controlling operation of a plurality of building control devices includes a pool of virtual controllers that are hosted on one or more computing device and are configured to provide control commands for controlling one or more associate building control devices of the plurality of building control devices. Each of a plurality of edge controllers are associated with at least one building control device and are configured to receive and execute control commands from one or more of the virtual controllers to control the associated one or more building control devices. An orchestrator is configured to monitor one or more operational characteristics of each of the virtual controllers and to modify one or more aspects of the pool of virtual controllers when one or more of the operational characteristics of one or more of the virtual controllers meets predetermined characteristics.

Abstract: A distributed building management system for controlling a building control device of a building includes a virtual controller that is hosted on a computing device and an edge controller that is associated with the building control device. The virtual controller includes a virtual container or a virtual machine that has control logic that generates control commands for controlling the building control device. The edge controller includes control logic that is configured to at least selectively provide closed loop control of one or more functions of the building control device. The edge controller is in operative communication with the virtual controller and is configured to receive and execute the control commands generated by the virtual controller.

Abstract: An HVAC controller provides control values to or more output ports of the HVAC controller. Operation of the HVAC controller is monitored for one or more irregularities. When one or more irregularities in the operation are identified, a hold mode is entered. The hold mode includes holding the one or more current control values on the one or more output ports of the HVAC controller until the one or more irregularities in the operation of the HVAC controller are corrected or a predetermined hold time expires, whichever occurs first. When the one or more irregularities in the operation of the HVAC controller are not corrected before the predetermined hold time expires, a back off mode is entered. The back off mode includes setting each of one or more control values on one or more output ports of the HVAC controller to a corresponding configurable back off value.

Abstract: A control system for controlling operation of a plurality of building control devices includes a pool of virtual controllers that are hosted on one or more computing device and are configured to provide control commands for controlling one or more associate building control devices of the plurality of building control devices. Each of a plurality of edge controllers are associated with at least one building control device and are configured to receive and execute control commands from one or more of the virtual controllers to control the associated one or more building control devices. An orchestrator is configured to monitor one or more operational characteristics of each of the virtual controllers and to modify one or more aspects of the pool of virtual controllers when one or more of the operational characteristics of one or more of the virtual controllers meets predetermined characteristics.

Abstract: A powerful direct digital control (DDC) and integration control platform that is scalable and easy to use and meet building owners and contractors' desires for a highly secure and robust technical solution. One may combine heating, ventilation and air conditioning (HVAC) DDC control with the embedded workstation platform, and DDC controllers with embedded workstation platform software design. An embedded workstation platform event-driven approach (such as a Windows operating system (OS) or Unix OS environment) is not necessarily easily suited to real-time common in HVAC DDC control. The present system may solve an issue of combining high-power event needs for HVAC DDC Controls.

Abstract: A distributed building management system includes a virtual controller and an edge controller for controlling a building control device using a distributed control logic that is distributed between the virtual controller and the edge controller. A programming tool displays a graphical representation of the distributed control logic and identifies which portions of the distributed control logic are considered critical and which portions of the distributed control logic are considered not critical to a fail-safe operation of the building control device should the edge controller stop receiving control commands from the virtual controller. The portions of the distributed control logic that are identified as being critical are assigned to the edge controller for execution and the portions of the distributed control logic that are not identified as being critical are assigned to the virtual controller for execution.

Abstract: A method of assigning IP addresses to devices of a building control network includes receiving a selection of selected devices of a plurality of devices from a user interface. The selected devices are displayed in a predetermined order on a display. A proposed static IP address for a first device in the predetermined order of the selected devices is received from the user interface. A static IP address is sequentially assigned to each of the selected devices following the first device in accordance with the predetermined order, assuming the subnet mask has been confirmed as valid. The selected devices in the predetermined order along with the assigned static IP addresses for each of the selected devices are displayed on the display. The assigned static IP address for each of the selected devices are downloaded to the corresponding one of the selected devices.

Abstract: A powerful direct digital control (DDC) and integration control platform that is scalable and easy to use and meet building owners and contractors' desires for a highly secure and robust technical solution. One may combine heating, ventilation and air conditioning (HVAC) DDC control with the embedded workstation platform, and DDC controllers with embedded workstation platform software design. An embedded workstation platform event-driven approach (such as a Windows operating system (OS) or Unix OS environment) is not necessarily easily suited to real-time common in HVAC DDC control. The present system may solve an issue of combining high-power event needs for HVAC DDC Controls.

Abstract: An HVAC controller provides control values to or more output ports of the HVAC controller. Operation of the HVAC controller is monitored for one or more irregularities. When one or more irregularities in the operation are identified, a hold mode is entered. The hold mode includes holding the one or more current control values on the one or more output ports of the HVAC controller until the one or more irregularities in the operation of the HVAC controller are corrected or a predetermined hold time expires, whichever occurs first. When the one or more irregularities in the operation of the HVAC controller are not corrected before the predetermined hold time expires, a back off mode is entered. The back off mode includes setting each of one or more control values on one or more output ports of the HVAC controller to a corresponding configurable back off value.

Abstract: A pseudo determinism control subsystem for event-driven integration framework of a controller system with application relative to various parameters such as, for instance, energy consumption. Pseudo determinism, near real time and/or direct digital control combined with event driven control along with strong security and high speed throughout the controller system.

Abstract: A distributed building management system for controlling a building control device of a building includes a virtual controller that is hosted on a computing device and an edge controller that is associated with the building control device. The virtual controller includes a virtual container or a virtual machine that has control logic that generates control commands for controlling the building control device. The edge controller includes control logic that is configured to at least selectively provide closed loop control of one or more functions of the building control device. The edge controller is in operative communication with the virtual controller and is configured to receive and execute the control commands generated by the virtual controller.

Abstract: A virtual controller is configured to send control commands to an edge controller such as in I/O module that is connected to a building management system component. The IO module is configured to communicate with the virtual controller and to provide local control commands to the building management system component that are based upon the control commands from the virtual controller when communication with the virtual controller is determined by the IO module to be functioning normally and are based upon one or more fail-safe commands generated by the IO module when communication with the virtual controller is determined by the IO module to not be functioning normally.

Abstract: A distributed building management system includes a virtual controller and an edge controller for controlling a building control device using a distributed control logic that is distributed between the virtual controller and the edge controller. A programming tool displays a graphical representation of the distributed control logic and identifies which portions of the distributed control logic are considered critical and which portions of the distributed control logic are considered not critical to a fail-safe operation of the building control device should the edge controller stop receiving control commands from the virtual controller. The portions of the distributed control logic that are identified as being critical are assigned to the edge controller for execution and the portions of the distributed control logic that are not identified as being critical are assigned to the virtual controller for execution.

Abstract: A pseudo determinism control subsystem for event-driven integration framework of a controller system with application relative to various parameters such as, for instance, energy consumption. Pseudo determinism, near real time and/or direct digital control combined with event driven control along with strong security and high speed throughout the controller system.

Abstract: An integrated unitary internet protocol (IP) control system with a rapid spanning tree protocol (RSTP), multi-port high speed switch, supervisor, web display and/or an expansion plant input/output (TO) capabilities. The system may have communication modules associated with encrypted file subsystems integrated with an IO network. A resulting secure IP based communication network may be connected between a software framework and the hardware IO network.

Abstract: A building controller includes a housing, a plurality of inputs, a plurality of outputs and a programmable reset button. A memory stores programmable instructions pertaining to the programmable reset button. A controller is operably coupled to the memory, the plurality of inputs, the plurality of outputs, and the programmable reset button. The controller is configured to receive signals from the plurality of inputs and to provide control signals to the plurality of outputs that are based at least in part on the received signals from the plurality of inputs. The controller is further configured to implement one or more actions that are based upon the programmed instructions pertaining to the programmable reset button that are stored in the memory when the programmable reset button is activated by a user.

Abstract: An integrated unitary internet protocol (IP) control system with a rapid spanning tree protocol (RSTP), multi-port high speed switch, supervisor, web display and/or an expansion plant input/output (IO) capabilities. The system may have communication modules associated with encrypted file subsystems integrated with an IO network. A resulting secure IP based communication network may be connected between a software framework and the hardware IO network.

Abstract: A building controller includes a housing, a plurality of inputs, a plurality of outputs and a programmable reset button. A memory stores programmable instructions pertaining to the programmable reset button. A controller is operably coupled to the memory, the plurality of inputs, the plurality of outputs, and the programmable reset button. The controller is configured to receive signals from the plurality of inputs and to provide control signals to the plurality of outputs that are based at least in part on the received signals from the plurality of inputs. The controller is further configured to implement one or more actions that are based upon the programmed instructions pertaining to the programmable reset button that are stored in the memory when the programmable reset button is activated by a user.