Abstract: Watermarking media content, in combination with blockchain and distributed storage networks, prevents the proliferation of Deepfake content. Digital watermarks are embedded in the audio and video tracks of video clips of trusted content producers at the time the videos are captured or before they are distributed. The watermarks are detected at the social media network's portals, nodes, and back ends. The embedded watermark imparts a unique identifier to the video, that links it to a blockchain. The watermarks also allow video source tracking, integrity verification, and alteration localization. The watermark detectors can be standalone software applications, or they can be integrated with other applications. They are used to perform three main tasks: (1) they alert the Internet user when he watches an inauthentic news video, so that he may discard it, (2) they prevent a Deepfake content from propagating through the network (3) they perform forensic analysis to help track and remove Deepfake content postings.

Abstract: Watermarking media content, in combination with blockchain and distributed storage networks, prevents the proliferation of Deepfake content. Digital watermarks are embedded in the audio and video tracks of video clips of trusted content producers at the time the videos are captured or before they are distributed. The watermarks are detected at the social media network's portals, nodes, and back ends. The embedded watermark imparts a unique identifier to the video, that links it to a blockchain. The watermarks also allow video source tracking, integrity verification, and alteration localization. The watermark detectors can be standalone software applications, or they can be integrated with other applications. They are used to perform three main tasks: (1) they alert the Internet user when he watches an inauthentic news video, so that he may discard it, (2) they prevent a Deepfake content from propagating through the network (3) they perform forensic analysis to help track and remove Deepfake content postings.

Abstract: Watermarking media content, in combination with blockchain and distributed storage networks, prevents the proliferation of Deepfake content. Digital watermarks are embedded in the audio and video tracks of video clips of trusted content producers at the time the videos are captured or before they are distributed. The watermarks are detected at the social media network's portals, nodes, and back ends. The embedded watermark imparts a unique identifier to the video, that links it to a blockchain. The watermarks also allow video source tracking, integrity verification, and alteration localization. The watermark detectors can be standalone software applications, or they can be integrated with other applications. They are used to perform three main tasks: (1) they alert the Internet user when he watches an inauthentic news video, so that he may discard it, (2) they prevent a Deepfake content from propagating through the network (3) they perform forensic analysis to help track and remove Deepfake content postings.

Abstract: Methods and devices maintain the status of unaltered media currently available within physical media trays of a printing device and maintain the status of currently available media processing components of the printing device. The media processing components have elements that physically alter the unaltered media. Further, such methods and devices dynamically enable previously created virtual media trays (and/or create virtual media trays) based on the availability of the unaltered media and the availability of the media processing components. The virtual media trays virtually appear to contain virtual media that is physically different from the unaltered media currently available. Such methods and devices receive a request to print on a selected virtual media from one of the virtual media trays through the graphic user interface. Then, these methods and devices physically alter the unaltered media using the media processing components to physically change the unaltered media to the selected virtual media.

Abstract: Methods and devices maintain the status of unaltered media currently available within physical media trays of a printing device and maintain the status of currently available media processing components of the printing device. The media processing components have elements that physically alter the unaltered media. Further, such methods and devices dynamically enable previously created virtual media trays (and/or create virtual media trays) based on the availability of the unaltered media and the availability of the media processing components. The virtual media trays virtually appear to contain virtual media that is physically different from the unaltered media currently available. Such methods and devices receive a request to print on a selected virtual media from one of the virtual media trays through the graphic user interface. Then, these methods and devices physically alter the unaltered media using the media processing components to physically change the unaltered media to the selected virtual media.

Abstract: Methods and systems maintain print media stocking information. The print media stocking information comprises types and amounts of print media stored at a plurality of different physical locations. The different physical locations have printing devices and external storage locations. The print media is maintained within internal storage locations of the printing devices and within the external storage locations at the different physical locations. The external storage locations are outside the printing devices and positioned relative to the printing devices a distance to allow an operator to load the print media into the printing devices when instructed to do so. The methods and systems receive a print job from a user. In response to receiving the print job, the methods and systems output to the user the types and amounts of media available at the different physical locations that correspond to print job media required for the print job.

Abstract: Methods and systems maintain print media stocking information. The print media stocking information comprises types and amounts of print media stored at a plurality of different physical locations. The different physical locations have printing devices and external storage locations. The print media is maintained within internal storage locations of the printing devices and within the external storage locations at the different physical locations. The external storage locations are outside the printing devices and positioned relative to the printing devices a distance to allow an operator to load the print media into the printing devices when instructed to do so. The methods and systems receive a print job from a user. In response to receiving the print job, the methods and systems output to the user the types and amounts of media available at the different physical locations that correspond to print job media required for the print job.