Abstract: Systems and methods for evaluating utility infrastructure using LIDAR data by dynamically capturing and processing the LIDAR data for improved assessment accuracy and processing efficiency. The method includes determining an orientation of a mobile LIDAR system, dynamically capturing LIDAR data corresponding to a region of interest by collecting LIDAR samples based on the orientation and the region of interest, identifying a utility object based at least in part on the LIDAR samples, decimating the LIDAR samples within a predetermined area around the utility object, generating depth-encoded multi-perspective images of the utility object using the decimated LIDAR samples, and determining at least one condition of the utility object. Certain implementations include determining a speed and an orientation of a mobile LIDAR system and dynamically capturing position data corresponding to a region of interest by collecting LIDAR samples at a rate based on the speed, the orientation, and the region of interest.

Abstract: A system includes a lidar system, a camera system, and a computing device. The computing device can receive lidar data from the lidar system, receive camera data from the camera system, execute object recognition process(es) to identify, from the camera data, a utility pole and components attached to the utility pole and to create corresponding classified camera data. The computing device can align the camera data with the lidar data and can classify the lidar data to create classified lidar data. The computing device can determine characteristics of the components based on the classified camera data and the classified lidar data. Based on the characteristics, the computing system can perform a pole loading analysis, a clearance analysis, and/or a wire sag analysis.

Abstract: A touch interface device includes a touch surface configured to be engaged by an object, first and second actuator assemblies operably connected to the touch surface, and a controller operably connected with the first and second actuator assemblies. The first actuator assembly displaces the touch surface in one or more lateral directions along the touch surface at a first frequency. The second actuator assembly displaces the touch surface in an angled direction that is one of at least obliquely or perpendicularly angled to the touch surface at a second frequency. The controller operates the first and second actuator assemblies so that the touch surface varies in engagement with the object to impart a force on the object that is along the touch surface.

Abstract: A touch interface device includes a touch surface configured to be engaged by an object, first and second actuator assemblies operably connected to the touch surface, and a controller operably connected with the first and second actuator assemblies. The first actuator assembly displaces the touch surface in one or more lateral directions along the touch surface at a first frequency. The second actuator assembly displaces the touch surface in an angled direction that is one of at least obliquely or perpendicularly angled to the touch surface at a second frequency. The controller operates the first and second actuator assemblies so that the touch surface varies in engagement with the object to impart a force on the object that is along the touch surface.

Abstract: A touch interface device includes a touch surface configured to be engaged by an object, first and second actuator assemblies operably connected to the touch surface, and a controller operably connected with the first and second actuator assemblies. The first actuator assembly displaces the touch surface in one or more lateral directions along the touch surface at a first frequency. The second actuator assembly displaces the touch surface in an angled direction that is one of at least obliquely or perpendicularly angled to the touch surface at a second frequency. The controller operates the first and second actuator assemblies so that the touch surface varies in engagement with the object to impart a force on the object that is along the touch surface.

Abstract: A system and method for identification whereby owners of personal items of value can register against a unique identification number (UID) that is printed, etched or affixed to one or more items. Institutional lost and found offices, such as airline, airport, transit and hotels, and individual finders can use the inventive system to automatically reconcile the lost item by what of its UID and notify the owners or users through an online reporting system. The system and method supplements existing airport luggage tracking systems and more particularly pertains to a new luggage locating system for identification of lost items and a method of automatically identifying the owner of lost items.

Abstract: The present invention relates to a system and method for assessing the impact of an ailment on a health related quality of life domain of a patient using a standardized common metric. The standardized common metric of the present invention enables the impact of various ailments to be compared.

Abstract: The closure device (121) includes interlocking fastening strips (130, 131) and a slider (132) slidably disposed on the fastening strips for facilitating the occlusion and deocclusion of the fastening strips (130, 131) when moved towards first and second ends thereof. A slider (132) is provided for facilitating the attachment of the slider (132) onto the fastening strips (130, 131) in the horizontal X axis (102). The slider (132) provides resistance against the removal of the slider (132) from the fastening strips (130, 131) in the horizontal X axis (102) and the vertical Z axis (106).

Abstract: An electrical cable having a holding member arranged longitudinally along the cable for an optic fiber, which can be used for temperature sensing and/or communications. The holding member can replace one or more strands of the cable, be placed inside an interstice of the cable, be placed in between various layers of the cable, or placed in the jacket of the cable. The cable can be produced through the addition of a planetary strander device to a wire assembly apparatus.

Abstract: A drag reduction arrangement for the body of an athlete moving through a fluid medium, comprises a device attachable to the athlete's body for delaying the onset of boundary layer separation at a trailing surface thereof The device preferably comprises an array of vortex generators. As a result, form drag is reduced by an amount which is substantially greater than any increase in skin friction due to the presence of the vortices.

Abstract: A drag reduction arrangement for the body of an athlete moving through a fluid medium, comprises a device attachable to the athlete's body for delaying the onset of boundary layer separation at a trailing surface thereof. The device preferably comprises an array of vortex generators. As a result, form drag is reduced by an amount which is substantially greater than any increase in skin friction due to the presence of the vortices.