Abstract: A system for controlling energy consumption. The system may incorporate devices configured on a floor map, a monitor that detects energy consumption by each device, a heat map shown on the floor map, a processor, and a user interface having a display connected to the processor. The heat map may indicate energy consumption in various areas of the floor plan. The floor map with the heat map may be a screen on the display. The energy consumption by each of the devices from the monitor may be calculated by the processor in time that each device is active and in a power rating of the respective device. The energy consumption by each of the devices may be converted by the processor into cost. From a screen, a user may define a virtual and dynamic zone to optimize and control the energy consumption.

Abstract: One or more environmental conditions within each of a plurality of server racks are received over time. One or more IT parameters representative of server load are received over time. A model is constructed that models how one or more of the environmental conditions within at least one of the server racks of the plurality of server racks responds to changes in one or more of the IT parameters. A future value of one or more environmental conditions within one or more of the plurality of server racks is predicted based at least in part on the model and the one or more subsequent received IT parameters. At least some of the environmental control equipment of the data center is proactively controlled based at least in part on the predicted future value of one or more of the environmental conditions within the one or more server racks.

Abstract: A plurality of smart city devices are configured using an application running on a mobile device. The method includes installing a particular smart city device and automatically identifying a geo-location of the particular smart city device by identifying a current geo-location of the mobile device using a location service of the mobile device. Configuration information for the particular smart city device is entered using a user interface of the mobile device. The geo-location and the configuration information of the particular smart city device are saved in the mobile device. The installing, entering, recognizing and storing steps are repeated for each of a number of the plurality of smart city devices. The saved geo-location and the configuration information for each of the number of smart city devices are uploaded from the mobile device to a remote server.

Abstract: A plurality of smart city devices are configured using an application running on a mobile device. The method includes installing a particular smart city device and automatically identifying a geo-location of the particular smart city device by identifying a current geo-location of the mobile device using a location service of the mobile device. Configuration information for the particular smart city device is entered using a user interface of the mobile device. The geo-location and the configuration information of the particular smart city device are saved in the mobile device. The installing, entering, recognizing and storing steps are repeated for each of a number of the plurality of smart city devices. The saved geo-location and the configuration information for each of the number of smart city devices are uploaded from the mobile device to a remote server.

Abstract: A plurality of smart city devices are configured using an application running on a mobile device. The method includes installing a particular smart city device and automatically identifying a geo-location of the particular smart city device by identifying a current geo-location of the mobile device using a location service of the mobile device. Configuration information for the particular smart city device is entered using a user interface of the mobile device. The geo-location and the configuration information of the particular smart city device are saved in the mobile device. The installing, entering, recognizing and storing steps are repeated for each of a number of the plurality of smart city devices. The saved geo-location and the configuration information for each of the number of smart city devices are uploaded from the mobile device to a remote server.

Abstract: A system for controlling energy consumption. The system may incorporate devices configured on a floor map, a monitor that detects energy consumption by each device, a heat map shown on the floor map, a processor, and a user interface having a display connected to the processor. The heat map may indicate energy consumption in various areas of the floor plan. The floor map with the heat map may be a screen on the display. The energy consumption by each of the devices from the monitor may be calculated by the processor in time that each device is active and in a power rating of the respective device. The energy consumption by each of the devices may be converted by the processor into cost. From a screen, a user may define a virtual and dynamic zone to optimize and control the energy consumption.

Abstract: A method of monitoring an event that is expected to progress along a planned event route includes receiving an indication of a current location of the event as the event progresses along the planned event route. Camera feeds that correspond to the current location of the event as the event progresses along the planned event route are automatically identified, selected and displayed on a situation awareness wall. Camera feeds that correspond to an expected future position of the event as the event progresses along the planned event route are automatically selected and displayed. Camera feeds that correspond to a previous position of the event as the event progresses along the planned event route are automatically removed from the situation awareness wall.

Abstract: A system for controlling energy consumption. The system may incorporate devices configured on a floor map, a monitor that detects energy consumption by each device, a heat map shown on the floor map, a processor, and a user interface having a display connected to the processor. The heat map may indicate energy consumption in various areas of the floor plan. The floor map with the heat map may be a screen on the display. The energy consumption by each of the devices from the monitor may be calculated by the processor in time that each device is active and in a power rating of the respective device. The energy consumption by each of the devices may be converted by the processor into cost. From a screen, a user may define a virtual and dynamic zone to optimize and control the energy consumption.

Abstract: A mobile device comprising a housing, a user interface, a camera that provides a camera video stream for display, and a controller configured to display a virtual field of view of a virtual security camera placed at a virtual security camera placement location at a site.

Abstract: A building management system having one or more layers of security. The building management system may include building management devices and building management clients configured to be used to access the one or more building management devices. The building management devices and the building management clients may be in communication with one another to form a blockchain network. Individual building management devices and individual building management clients may each be a blockchain node of the blockchain network. In some cases, the building management system may include user accounts through which users access data on the building automation system. The user accounts may be a blockchain node of the blockchain network formed by the building automation system.

Abstract: Systems and methods for reducing cyber security incidents in video surveillance and security systems with intelligent password management are provided. Some methods can include assessing a vulnerability of a current password for each of a plurality of cameras, responsive to detecting that the current password for at least one of the plurality of cameras is vulnerable, automatically generating an updated password for the at least one of the plurality of cameras, and assigning the updated password to the at least one of the plurality of cameras.

Abstract: A mobile device comprising a housing, a user interface, a camera that provides a camera video stream for display, and a controller configured to display a virtual field of view of a virtual security camera placed at a virtual security camera placement location at a site.

Abstract: A system for controlling energy consumption. The system may incorporate devices configured on a floor map, a monitor that detects energy consumption by each device, a heat map shown on the floor map, a processor, and a user interface having a display connected to the processor. The heat map may indicate energy consumption in various areas of the floor plan. The floor map with the heat map may be a screen on the display. The energy consumption by each of the devices from the monitor may be calculated by the processor in time that each device is active and in a power rating of the respective device. The energy consumption by each of the devices may be converted by the processor into cost. From a screen, a user may define a virtual and dynamic zone to optimize and control the energy consumption.

Abstract: Systems and methods for directly accessing video data streams and data between devices in a video surveillance system can include a first camera of a mobile device capturing an image of a field of view of a video data stream displayed on a second device, the mobile device matching the field of view with a source of the video data stream, and responsive to matching the field of view with the source, the mobile device retrieving the video data stream directly from the source.

Abstract: A system for controlling energy consumption. The system may incorporate devices configured on a floor map, a monitor that detects energy consumption by each device, a heat map shown on the floor map, a processor, and a user interface having a display connected to the processor. The heat map may indicate energy consumption in various areas of the floor plan. The floor map with the heat map may be a screen on the display. The energy consumption by each of the devices from the monitor may be calculated by the processor in time that each device is active and in a power rating of the respective device. The energy consumption by each of the devices may be converted by the processor into cost. From a screen, a user may define a virtual and dynamic zone to optimize and control the energy consumption.

Abstract: Systems, devices, and methods for organizational context-based operations of a mobile device are described herein. One device includes instructions stored thereon executable by a processor to determine location information corresponding to a mobile device in a facility associated with an organization, determine a particular area of the facility in which the mobile device is located based on the location information, determine an organizational context while the device is in the particular area, and cause a change of an operation of the mobile device based on the context.

Abstract: Systems and methods for a cognitive virtual central monitoring station (CMS) and methods therefor are provided. Some methods can include the cognitive virtual CMS receiving historical data representing interactions between CMS human operators and first security systems, the cognitive virtual CMS analyzing the historical data to generate algorithms and rules for the cognitive virtual CMS, the cognitive virtual CMS interacting with a second security system, and the cognitive virtual CMS using the algorithms and the rules to respond to the second security system.

Abstract: Systems, devices, and methods for organizational context-based operations of a mobile device are described herein. One device includes instructions stored thereon executable by a processor to determine location information corresponding to a mobile device in a facility associated with an organization, determine a particular area of the facility in which the mobile device is located based on the location information, determine an organizational context while the device is in the particular area, and cause a change of an operation of the mobile device based on the context.

Abstract: Systems, devices, and methods for organizational context-based operations of a mobile device are described herein. One device includes instructions stored thereon executable by a processor to determine location information corresponding to a mobile device in a facility associated with an organization, determine a particular area of the facility in which the mobile device is located based on the location information, determine an organizational context while the device is in the particular area, and cause a change of an operation of the mobile device based on the context.

Abstract: A privacy protection method and system (10) is provided for a building, home, apartment, or other area (12) protected by a connected security system (14). The system (10) includes a detector drone (16) and the security system (14). The drone (16) includes at least one drone detecting sensor (24) and automatically initiates a wireless signal (30) in response to the sensor (24) indicating the presence of a foreign drone (17). The security system (14) includes a central processor (40) and at least one electronic device (46) having a privacy condition wherein the device (46) protects against privacy intrusions by a foreign drone (17) and a non-privacy condition wherein the device (46) does not protect from the privacy intrusion. The processor (40) is configured to command the device (46) to change from the non-privacy condition to the privacy condition in response to the wireless signal (30) from the detector drone (16).