Abstract: Systems and methods for a video multi-codec encoder are provided. Video input data including a plurality of video frames is accepted. At least one codec Y subsystem is applied to frame data that includes at least one video frame of the plurality of video frames, where the frame data includes at least an unencoded portion of the plurality of video frames before one or more of the at least one codec Y subsystem is applied. The at least one codec Y subsystem includes at least partial Yi codec functionality. Yi is a codec selected from video codecs ={Y1, . . . , Yn}. At least one codec Z subsystem is applied to the frame data, where the at least one codec Z subsystem includes at least partial Z codec functionality. Video output data is generated including simple Z-encoded video data of the at least one video frame using the frame data.

Abstract: Systems and methods for content-protecting video codecs are described. At least one embodiment of the invention comprises a system for protecting video content comprising computer memory comprising a stored set of instructions for processing video data; and at least one microprocessor configured to process the video data according to the stored set of instructions, the stored set of instructions requiring identification of data to be removed, at least a portion of which is essential to obtaining a visually acceptable reproduction of video, the stored set of instructions being further configured to replace removed data with data-hiding values, wherein the visually acceptable reproduction of video cannot be generated without a key that enables recovery of enough of the removed data from the data-hiding values that replaced the removed data.

Abstract: Systems and methods for content-protecting video codecs are described. At least one embodiment of the invention comprises a system for protecting video content comprising computer memory comprising a stored set of instructions for processing video data; and at least one microprocessor configured to process the video data according to the stored set of instructions, the stored set of instructions requiring identification of data to be removed, at least a portion of which is essential to obtaining a visually acceptable reproduction of video, the stored set of instructions being further configured to replace removed data with data-hiding values, wherein the visually acceptable reproduction of video cannot be generated without a key that enables recovery of enough of the removed data from the data-hiding values that replaced the removed data.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multi-resolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multi-resolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multi-resolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.

Abstract: Systems and methods for a video multi-codec encoder are provided. Video input data including a plurality of video frames is accepted. At least one codec Y subsystem is applied to frame data that includes at least one video frame of the plurality of video frames, where the frame data includes at least an unencoded portion of the plurality of video frames before one or more of the at least one codec Y subsystem is applied. The at least one codec Y subsystem includes at least partial Yi codec functionality. Yi is a codec selected from video codecs ={Y1, . . . , Yn}. At least one codec Z subsystem is applied to the frame data, where the at least one codec Z subsystem includes at least partial Z codec functionality. Video output data is generated including simple Z-encoded video data of the at least one video frame using the frame data.

Abstract: Systems and methods for a video multi-codec encoder are provided. Video input data including a plurality of video frames is accepted. At least one codec Y subsystem is applied to frame data that includes at least one video frame of the plurality of video frames, where the frame data includes at least an unencoded portion of the plurality of video frames before one or more of the at least one codec Y subsystem is applied. The at least one codec Y subsystem includes at least partial Yi codec functionality. Yi is a codec selected from video codecs ={Y1, . . . , Yn}. At least one codec Z subsystem is applied to the frame data, where the at least one codec Z subsystem includes at least partial Z codec functionality. Video output data is generated including simple Z-encoded video data of the at least one video frame using the frame data.

Abstract: Systems and methods for content-protecting video codecs are described. At least one embodiment of the invention comprises a system for protecting video content comprising computer memory comprising a stored set of instructions for processing video data; and at least one microprocessor configured to process the video data according to the stored set of instructions, the stored set of instructions requiring identification of data to be removed, at least a portion of which is essential to obtaining a visually acceptable reproduction of video, the stored set of instructions being further configured to replace removed data with data-hiding values, wherein the visually acceptable reproduction of video cannot be generated without a key that enables recovery of enough of the removed data from the data-hiding values that replaced the removed data.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multi-resolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multiresolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.

Abstract: Systems and methods for a video multi-codec encoder are provided. Video input data including a plurality of video frames is accepted. At least one codec Y subsystem is applied to frame data that includes at least one video frame of the plurality of video frames, where the frame data includes at least an unencoded portion of the plurality of video frames before one or more of the at least one codec Y subsystem is applied. The at least one codec Y subsystem includes at least partial Yi codec functionality. Yi is a codec selected from video codecs ={Y1, . . . , Yn}. At least one codec Z subsystem is applied to the frame data, where the at least one codec Z subsystem includes at least partial Z codec functionality. Video output data is generated including simple Z-encoded video data of the at least one video frame using the frame data.

Abstract: A wavelet transform (WT) is applied to a data stream of high definition video frames, each comprising one or more data channels digitally representing the same image. A WT is applied to each channel. Visual-quality preserving data filters and data substitution techniques are selectively applied that typically lead to at least 90-to-1 compression of the final encoded video frame. Image edge data is extracted and preserved and image noise is reduced to enhance compressibility. After the first WT, primarily low frequency (LL) image data is retained. With each later WT, more non-LL data is retained. Temporal sequences of LL images that result from the final iteration of the wavelet transform are compressed by means of a chain of invertible differenced images. Any color space can be used. Cross-channel conditional substitution is applicable. Complete multiresolution scalability is incorporated into the encoded product. Extra-high definition video encoding is also achievable.