Abstract: An equipment monitoring system includes an unmanned vehicle, an alarm circuit remote from the unmanned vehicle, and a vehicle control circuit remote from the unmanned vehicle. The unmanned vehicle can include a communications circuit and a flight controller. The alarm circuit detects a failure condition of a building component and outputs an indication of the failure condition. The vehicle control circuit receives the indication of the failure condition from the alarm circuit; generates, based on the indication of the failure condition, an equipment verification signal that includes an identifier of the building component, a position of the building component, and a test of the building component to be executed; and transmits the equipment verification signal to the flight controller of the unmanned vehicle via the communications circuit of the unmanned vehicle to cause the unmanned vehicle to execute the test of the building component.

Abstract: An equipment monitoring system includes an unmanned vehicle, an alarm circuit remote from the unmanned vehicle, and a vehicle control circuit remote from the unmanned vehicle. The unmanned vehicle can include a communications circuit and a flight controller. The alarm circuit detects a failure condition of a building component and outputs an indication of the failure condition. The vehicle control circuit receives the indication of the failure condition from the alarm circuit; generates, based on the indication of the failure condition, an equipment verification signal that includes an identifier of the building component, a position of the building component, and a test of the building component to be executed; and transmits the equipment verification signal to the flight controller of the unmanned vehicle via the communications circuit of the unmanned vehicle to cause the unmanned vehicle to execute the test of the building component.

Abstract: An equipment monitoring system includes an unmanned vehicle, an alarm circuit remote from the unmanned vehicle, and a vehicle control circuit remote from the unmanned vehicle. The unmanned vehicle can include a communications circuit and a flight controller. The alarm circuit detects a failure condition of a building component and outputs an indication of the failure condition. The vehicle control circuit receives the indication of the failure condition from the alarm circuit; generates, based on the indication of the failure condition, an equipment verification signal that includes an identifier of the building component, a position of the building component, and a test of the building component to be executed; and transmits the equipment verification signal to the flight controller of the unmanned vehicle via the communications circuit of the unmanned vehicle to cause the unmanned vehicle to execute the test of the building component.

Abstract: An equipment monitoring system includes an unmanned vehicle, an alarm circuit remote from the unmanned vehicle, and a vehicle control circuit remote from the unmanned vehicle. The unmanned vehicle can include a communications circuit and a flight controller. The alarm circuit detects a failure condition of a building component and outputs an indication of the failure condition. The vehicle control circuit receives the indication of the failure condition from the alarm circuit; generates, based on the indication of the failure condition, an equipment verification signal that includes an identifier of the building component, a position of the building component, and a test of the building component to be executed; and transmits the equipment verification signal to the flight controller of the unmanned vehicle via the communications circuit of the unmanned vehicle to cause the unmanned vehicle to execute the test of the building component.

Abstract: A distributed transaction ledger (e.g. blockchain) is used to control access through access points in an access control system. During normal operation, access control devices (e.g. system controllers and door controllers) generate and broadcast transaction information to a validation network. The validation network maintains a distributed transaction ledger for the access control system, for example, by validating and distributing the transaction information across the validation network according to predetermined consensus criteria. The devices perform access control functions based on transaction information retrieved from the transaction ledger. Door controllers receive identification information from user devices (e.g. identification badges, mobile computing devices) and send the identification information to the validation network. A predetermined number of responding nodes generate verification information based on authorization information in the transaction ledger.

Abstract: An equipment monitoring system includes an unmanned vehicle, an alarm circuit remote from the unmanned vehicle, and a vehicle control circuit remote from the unmanned vehicle. The unmanned vehicle can include a communications circuit and a flight controller. The alarm circuit detects a failure condition of a building component and outputs an indication of the failure condition. The vehicle control circuit receives the indication of the failure condition from the alarm circuit; generates, based on the indication of the failure condition, an equipment verification signal that includes an identifier of the building component, a position of the building component, and a test of the building component to be executed; and transmits the equipment verification signal to the flight controller of the unmanned vehicle via the communications circuit of the unmanned vehicle to cause the unmanned vehicle to execute the test of the building component.

Abstract: A distributed transaction ledger (e.g. blockchain) is used to control access through access points in an access control system. During normal operation, access control devices (e.g. system controllers and door controllers) generate and broadcast transaction information to a validation network. The validation network maintains a distributed transaction ledger for the access control system, for example, by validating and distributing the transaction information across the validation network according to predetermined consensus criteria. The devices perform access control functions based on transaction information retrieved from the transaction ledger. Door controllers receive identification information from user devices (e.g. identification badges, mobile computing devices) and send the identification information to the validation network. A predetermined number of responding nodes generate verification information based on authorization information in the transaction ledger.

Abstract: A distributed event engine for controlling distributed devices of a building management system executes as discrete event processes on distributed devices with sufficient computing power and availability. The distributed devices communicate via a peer-to-peer network and a distributed ledger (e.g. blockchain). An event engine configuration module assigns the event processes to the distributed devices based on device and capability information published to the distributed ledger. An edge device scoring process executing on the distributed devices executing the event processes determines which other distributed devices to control based on which devices are compatible with local event processes and/or electrically and geographically close, resulting in decreased latency, vulnerability to hacking and corruption of data.

Abstract: A system and method for providing multi-factor authentication that requires a user provide credentials via an authenticating server when attempting access or to control local functions and then, based on the success with the authenticating server, provides the access or control of local functions at subsequent attempts at access or control of the local functions.

Abstract: A system and method for providing multi-factor authentication that requires a user provide credentials via an authenticating server when attempting access or to control local functions and then, based on the success with the authenticating server, provides the access or control of local functions at subsequent attempts at access or control of the local functions.

Abstract: A security system, system user interface, and method for displaying status information from security devices in a networked security system using a multistate alert user interface. The security system supports different features in icons associated with the security devices, displayed on a graphical user interface. This provides operators with the ability to display status information from security devices, such as alert information comprising one or more alerts, by displaying the icons on a topology map of the graphical user interface. In this way, the operator can determine at a glance the number and type of alert information from the topology map without the need to perform additional selection and navigation steps within the graphical user interface.

Abstract: A security system, system user interface, and method for displaying status information from security devices in a networked security system using a multistate alert user interface. The security system supports different features in icons associated with the security devices, displayed on a graphical user interface. This provides operators with the ability to display status information from security devices, such as alert information comprising one or more alerts, by displaying the icons on a topology map of the graphical user interface. In this way, the operator can determine at a glance the number and type of alert information from the topology map without the need to perform additional selection and navigation steps within the graphical user interface.