Harris Corporation

John Heminghous

Tariq Bakir

Robert McDonald

Christopher T Dunkel

Aric Peterson

John L Delay

Kari J Bonestroo

Aric W Peterson

An image processing system may include a transceiver configured to communicate with a remote terminal over a communications channel. Furthermore, an image processor may cooperate with the transceiver and be configured to determine an operational parameter associated with at least one of the communications channel and the remote terminal, generate a resized image from an original image based upon an energy function and the operational parameter, and transmit the resized image to the remote terminal over the communications channel.

Image processing system for image resizing based upon operational feedback parameters and related methods

A video processing system may include a display, at least one geospatial database, and a video processor. The video processor may cooperate with the display and the at least one geospatial database and be configured to display a georeferenced video feed on the display and defining a viewable area, and to overlay selected geospatially-tagged metadata onto the viewable area and relating to a geolocation outside the viewable area.

Video processing system providing overlay of selected geospatially-tagged metadata relating to a geolocation outside viewable area and related methods

A video processing system may include a video ingest module for receiving a plurality of georeferenced video feeds each including a sequence of video frames and initial geospatial metadata associated therewith, and each georeferenced video feed having a respective different geospatial accuracy level associated therewith. The system may further include a video processor coupled to the video ingest module and configured to perform image registration among the plurality of georeferenced video feeds, and generate corrected geospatial metadata for at least one of the georeferenced video feeds based upon the initial geospatial metadata, the image registration and the different geospatial accuracy levels.

Video processing system generating corrected geospatial metadata for a plurality of georeferenced video feeds and related methods

A multimedia system may include at least one audio comment input device configured to permit at least one commentator to generate audio comment data based upon viewing video data from a video source. Furthermore, a media processor may cooperate with the at least one audio comment input device and be configured to process video source data and audio comment data and generate therefrom audio trigger markers synchronized with the video source data for predetermined audio triggers in the audio comment data, and combine the video source data, the audio comment data, and the audio trigger markers into a media data stream.

Multimedia system generating audio trigger markers synchronized with video source data and related methods

A video processing system which may include a first video input configured to receive a first georeferenced video feed from a first video source, and a second video input configured to receive a second georeferenced video feed from a second video source, where the second georeferenced video feed overlaps the first georeferenced video feed. The system may further include a video processor coupled to the first and second video inputs. The video processor may include an annotation module configured to generate an annotation for an object in the first georeferenced video feed, and a geospatial correlation module configured to geospatially correlate the annotation to the object in the second georeferenced video feed overlapping the first georeferenced video feed.

Video processing system providing correlation between objects in different georeferenced video feeds and related methods

A surveillance video system may include a surveillance image database storing a sequence of surveillance image files for a common area having image acquisition time metadata associated therewith, the sequence of surveillance image files defining an image acquisition rate. A processor may cooperate with the surveillance image database and may be configured to transcode the surveillance image files into a sequence of surveillance video frames retaining the image acquisition time metadata and at a video frame rate different from the image acquisition rate. The processor may also be configured to assemble a surveillance video transport stream from the sequence of surveillance video frames and retaining the image acquisition time metadata.

Surveillance system for transcoding surveillance image files while retaining image acquisition time metadata and associated methods

A video processing system may include a display and a video processor coupled to the display. The video processor may be configured to display a georeferenced video feed on the display defining a viewable area, determine actual geospatial location data for a selected moving object within the viewable area, and generate estimated geospatial location data along a predicted path for the moving object when the moving object is no longer within the viewable area and based upon the actual geospatial location data. The video processor may be further configured to define a successively expanding search area for the moving object when the moving object is no longer within the viewable window and based upon the estimated geospatial location data, and search within the successively expanding search area for the moving object when the successively expanding search area is within the viewable area.

Video processing system providing enhanced tracking features for moving objects outside of a viewable window and related methods

A method () for online collaboration among users at different locations sharing common motion imagery (). The method involves storing data defining the motion imagery (MID) in a data store () associated with a motion image server (MIS) and communicating the motion imagery to a first client device (FCD). The method also involves generating at the FCD () an annotation () capable of being displayed together with the motion imagery. The annotation is defined by metadata distinct from the MID and containing information to associate the metadata with the motion imagery. The method further involves communicating the metadata to the MIS (), storing the metadata in the data store, and communicating the MID and the metadata to a second client device (SCD). The SCD () selectively displays the annotation together with the motion imagery in response to an input command of a second user.

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Melbourne, FL, United States of America

John Heminghous