Abstract: A manager device manages communications between wireless devices in a building automation and control (BAC) network. The manager device includes multiple RF modules and a CPU, all disposed within a single housing. Each RF module includes an antenna and RF transceiver for transmitting and receiving wireless RF signals to and from the wireless devices. Each RF transceiver of each RF module operates on a different RF frequency from the RF transceiver of each of the other RF modules. The CPU runs multiple processes in a wireless network protocol stack, including an event handler process and multiple transceiver control processes. The event handler process monitors events within the BAC network, and manages message traffic to and from the transceiver control processes. The transceiver control processes receive messages from and send messages to the event handler process. Each transceiver control process is associated with a corresponding one of the RF transceivers.

Abstract: A manager device manages communications between wireless devices in a building automation and control (BAC) network. The manager device includes multiple RF modules and a CPU, all disposed within a single housing. Each RF module includes an antenna and RF transceiver for transmitting and receiving wireless RF signals to and from the wireless devices. Each RF transceiver of each RF module operates on a different RF frequency from the RF transceiver of each of the other RF modules. The CPU runs multiple processes in a wireless network protocol stack, including an event handler process and multiple transceiver control processes. The event handler process monitors events within the BAC network, and manages message traffic to and from the transceiver control processes. The transceiver control processes receive messages from and send messages to the event handler process. Each transceiver control process is associated with a corresponding one of the RF transceivers.

Abstract: A building control and management system including an automation controller and a plurality of peripheral devices configured to perform building control-management system functions. The automation controller and peripheral devices communicate wirelessly and the peripheral devices may be enabled and disabled as wireless repeaters in a network formed by the automation controller and the peripheral devices. The automation controller may monitor the communication traffic levels in the wireless network and enable or disable peripheral devices as wireless repeaters to increase or decrease the communication traffic in the network.

Abstract: An automation system including a plurality of peripheral devices, each configured to perform at least one function relating to energy consumption in a facility and an automation controller in communication with the plurality of peripheral devices and providing for the control of the performance of the function by each device. An external network resource such as at least a virtual private network server is configured to enable communication with the automation controller. The automation controller is configured, such as by executing virtual private network software, to establish and maintain a secure data link with the virtual private network server and to enable oversight and/or control of the automation controller via the virtual private network server.

Abstract: A building control and management system including an automation controller and a plurality of peripheral devices configured to perform building control-management system functions. The automation controller and peripheral devices communicate wirelessly and the peripheral devices may be enabled and disabled as wireless repeaters in a network formed by the automation controller and the peripheral devices. The automation controller may monitor the communication traffic levels in the wireless network and enable or disable peripheral devices as wireless repeaters to increase or decrease the communication traffic in the network.

Abstract: A building control and management system including an automation controller and a plurality of peripheral devices configured to perform building control-management system functions. The automation controller and peripheral devices communicate wirelessly and the peripheral devices can be enabled and disabled as wireless repeaters in a network formed by the automation controller and the peripheral devices. The automation controller can monitor the communication traffic levels in the wireless network and enable or disable peripheral devices as wireless repeaters to increase or decrease the communication traffic in the network.

Abstract: An automation system including a plurality of peripheral devices, each configured to perform at least one function relating to energy consumption in a facility and an automation controller in communication with the plurality of peripheral devices and providing for the control of the performance of the function by each device, wherein the automation controller includes a compiler configured to take high level rules and information about the peripheral devices and produce at least one program that will respond to data from the peripheral devices and to timer, calendar, clock, and preprogrammed events and a server component that provides the data as input to the at least one program and takes actions based on the output of the program.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.

Abstract: An automation system including a plurality of peripheral devices, each configured to perform at least one function relating to energy consumption in a facility and an automation controller in communication with the plurality of peripheral devices and providing for the control of the performance of the function by each device, wherein the system includes a configurable transfer switch that enables the system to control the flow and/or source of electricity provided to circuits in a facility.

Abstract: An automation system including a plurality of peripheral devices, each configured to perform at least one function relating to energy consumption in a facility and an automation controller in communication with the plurality of peripheral devices and providing for the control of the performance of the function by each device. An external network resource such as at least a virtual private network server is configured to enable communication with the automation controller. The automation controller is configured, such as by executing virtual private network software, to establish and maintain a secure data link with the virtual private network server and to enable oversight and/or control of the automation controller via the virtual private network server.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.

Abstract: An automation system including a plurality of peripheral devices, each configured to perform at least one function relating to energy consumption in a facility and an automation controller in communication with the plurality of peripheral devices and providing for the control of the performance of the function by each device, wherein the automation controller includes a compiler configured to take high level rules and information about the peripheral devices and produce at least one program that will respond to data from the peripheral devices and to timer, calendar, clock, and preprogrammed events and a server component that provides the data as input to the at least one program and takes actions based on the output of the program.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.

Abstract: A multi-level automation control architecture, methods, and systems are disclosed, which provide enhanced scalability, functionality, and cost effectiveness for energy, access, and control. The systems include various combinations of automation controllers, remote controllers and peripheral devices that are used to provide monitoring and control functionality over the various systems in a structure, such as HVAC, water, lighting, etc. In various embodiments, the automation controller and various peripheral devices are implemented to provide an integrated energy management system for the structure. The system allows the user to manage energy based on the day, time, the presence of people, and the availability of natural lighting and heating, as well as prioritize and participate in demand-response program.