Abstract: A ferrule boot for a fiber optic cable includes a front body portion defining at least one aperture, and includes at least one rear body portion defining at least one guide channel that facilitates insertion of loose optical fiber segments through the at least one aperture. At least a portion of each guide channel lacks a top surface boundary that is registered with a top surface of a corresponding aperture, such that an accessible (e.g., open) top portion is provided to ease insertion of at least one group of optical fibers into the at least one guide channel, with the optical fibers preferably being non-ribbonized. Fiber optic cable assemblies and methods for fabrication utilizing the ferrule boot are further provided.

Abstract: A ferrule boot for a fiber optic cable includes a front body portion defining at least one aperture, and includes at least one rear body portion defining at least one guide channel that facilitates insertion of loose optical fiber segments through the at least one aperture. At least a portion of each guide channel lacks a top surface boundary that is registered with a top surface of a corresponding aperture, such that an accessible (e.g., open) top portion is provided to ease insertion of at least one group of optical fibers into the at least one guide channel, with the optical fibers preferably being non-ribbonized. Fiber optic cable assemblies and methods for fabrication utilizing the ferrule boot are further provided.

Abstract: Described is a system for conveying the spatial location of an object with respect to a user's current location utilizing a video rendering following an automatically generated path from the user's location to the location of the object of interest initiated from the user's current perspective. The system comprises a display device; a virtual three-dimensional model of the user's environment; a visualization creation module; a route planner; and a video rendering following an automatically generated path from the user's location to the location of the object of interest utilizing the visualization creation module, wherein the video rendering displayed on the display device is from a first-person view. Also described is a method of utilizing the system.

Abstract: Described is a system for automatic object localization based on visual simultaneous localization and mapping (SLAM) and cognitive swarm recognition. The system is configured to detect a set of location data corresponding to a current location of a sensor positioned on a platform. A map model of an environment surrounding the sensor is generated based on an input image from the sensor and the location data. In a desired aspect, a cognitive swarm object detection module is used to search for and detect an object of interest. The three-dimensional location of the object of interest relative to the platform is then estimated based on the map model and the location data regarding the sensor. The system described allows for real-time, continuous three-dimensional location updating for moving objects of interest from a mobile platform. A computer-implemented method and computer program product are also described.

Abstract: A multi-stage method of visual object detection is disclosed. The method was originally designed to detect humans in specific poses, but is applicable to generic detection of any object. A first stage comprises acts of searching for members of a predetermined general-class of objects (such as humans) in an image using a cognitive swarm, detecting members of the general-class of objects in the image, and selecting regions of the image containing detected members of the general-class of objects. A second stage comprises acts of searching for members of a predetermined specific-class of objects (such as humans in a certain pose) within the selected regions of the image using a cognitive swarm, detecting members of the specific-class of objects within the selected regions of the image, and outputting the locations of detected objects to an operator display and optionally to an automatic response system.

Abstract: Described is a navigation system. The navigation system comprises a route planning module and a route guidance module. The route planning module is configured to receive a request from a user for guidance to a particular destination. Based on a starting point, the route planning module determines a route from the starting point to the particular destination. The route guidance module is configured to receive the route, and based on the route and current location of the user, provide location-specific instructions to the user. The location-specific instructions include reference to specific visible objects within the vicinity of the user.