A method for aligning displayed data in an augmented reality (AR) display includes determining a selected location context associated with a piece of equipment, determining a process element associated with the piece of equipment and according to a selected engineering process, determining, according to a digital representation of the equipment, a first location of the process element, receiving meta-sensor location data for one or more meta-sensors in the piece of equipment and indicating a second location for each of the meta-sensors with respect to the selected location context, determining a third location of the AR display with respect to the selected location context, determining overlay data for the process element, determining a display location according to the first location, the third location and the location data of each meta-sensor, and displaying the overlay data at the display location.

Deployable navigation beacons can be deployed from a vehicle, such as an unmanned aerial vehicle (UAV), in an event of a loss of position or orientation of the vehicle. After deployment of the navigation beacons, the vehicle may detect locations of the navigation beacon, which may define a surface that may include surface features. The vehicle may then perform control operations based on the resolved locations. For example, UAV may maneuver to land proximate to the navigation beacons after resolving locations of the navigation beacons as a continuous surface. The navigation beacons may output a visual signal (e.g., a light), a auditory signal (e.g., a sound), and/or a radio signal. In some embodiments, each navigation beacon may include a different or unique signal.

Determining a vertical location of a hand-held computing device. At least some of the example embodiments are computer-implemented methods including: generating an estimate of expected vertical location based on items of beacon data received from beacons by a radio receiver of the hand-held computing device, generating an error covariance of the estimate of expected vertical location based on the items of beacon data, calculating a level normalized change based on measurements of barometric pressure by a pressure sensor of the hand-held computing device, calculating the vertical location of the hand-held computing device based on the level normalized change, the error covariance of the estimate of expected vertical location, and the estimate of expected vertical location, and activating a relevant map for a level comprising the vertical location and displaying the vertical location on a display device of the hand-held computing device.

The present disclosure relates to a control device for electrical installations, which has improved signaling capabilities in alert conditions, particularly when said control device is no more fed by a power supply and it cannot carry out its control and monitoring functionalities. In a further aspect, the present disclosure relates to a computerized signaling system for an electrical installation, characterized in that it comprises one or more control devices having the above-mentioned improved signaling capabilities and a software application stored in one or more mobile computerized devices. Said software application is configured to make each mobile computerized mobile detect the beacon data packets broadcasted by said control devices in alert conditions.

Determining a vertical location of a hand-held computing device. At least some of the example embodiments are computer-implemented methods including: generating an estimate of expected vertical location based on items of beacon data received from beacons by a radio receiver of the hand-held computing device, generating an error covariance of the estimate of expected vertical location based on the items of beacon data, calculating a level normalized change based on measurements of barometric pressure by a pressure sensor of the hand-held computing device, calculating the vertical location of the hand-held computing device based on the level normalized change, the error covariance of the estimate of expected vertical location, and the estimate of expected vertical location, and activating a relevant map for a level comprising the vertical location and displaying the vertical location on a display device of the hand-held computing device.

The present inventive concept includes a duct system and method for using same to map and locate ducts. A preferred embodiment of the duct system includes a duct, a plurality of electronic information modules and an oversheath at least partially covering the plurality of information modules and fixing the information modules to the duct. The plurality of information modules are configured to emit a positional signal to enable location of the information modules and associated duct(s) and/or mapping of the duct system.

The present inventive concept includes a duct system and method for using same to map and locate ducts. A preferred embodiment of the duct system includes a duct, a plurality of electronic information modules and an oversheath at least partially covering the plurality of information modules and fixing the information modules to the duct. The plurality of information modules are configured to emit a positional signal to enable location of the information modules and associated duct(s) and/or mapping of the duct system.

The disclosed is a tracking system comprises RF tags/beacons and a Hub (Parent Node) (100) for centralized control, with Bi-directional serial communication (101) linking the Parent Node to Wireless Nodes (Child Nodes) (102). Data transfer occurs via a Cellular Network (106) to a cloud-based system featuring a user interface (108) for user instructions and result display, a Database (111) for storing asset data, and an Analytics Engine (110) for organizing data based on received asset-related information. The system ensures precise monitoring and scanning of RF tags/beacons for enhanced tracking accuracy. The present disclosure also relates to a method for asset tracking by way of the tracking system (10).

Methods and systems for real-time object tracking and data aggregation in panoramic video are disclosed. An example system provides a panoramic video camera that produces panoramic video data of an area; a plurality of radio frequency tags producing tracking data; and at least one of the radio frequency tags being co-located with the panoramic video camera, producing tracking data for the panoramic video camera; at least another of the radio frequency tags being co-located with at least one object within the area, producing tracking data for the at least one object; a computing device, wherein the computing device receives the panoramic video data and further receives the tracking data from the plurality of radio frequency tags; the computing device generating a video stream by augmenting the panoramic video data with the tracking data; the computing device sending the video stream to at least one remote system. Other methods and systems are disclosed.

Various implementations for an automatic safety system for monitoring the use of personal protective equipment are provided. Various implementations for processes for monitoring the use of personal protective equipment are also provided. The system and methods involve the use of personal safety instruments comprising beacons, and a wearable electronic detection device carried by a user, configured to continuously or periodically monitor the distance between a user and the personal safety instruments. The system and processes may be used to prevent or limit the occurrence of accidents, incidents and/or injuries in hazardous work environments.