In one embodiment, a computing device receives, from one or more cameras, a video stream comprising multiple frames, where the video stream is received at a first quality. The computing device analyzes, using a machine-learning model, images in the frames, where the machine-learning model has been trained to detect one or more objects-of-interest in the images. The computing device identifies a sequence-of-interest including consecutive frames of the video stream, where at least one object-of-interest was detected in at least one of the consecutive frames. The computing device generates a video package including the sequence-of-interest.

In one embodiment, a computing device receives, from one or more cameras, a video stream comprising multiple frames, where the video stream is received at a first quality. The computing device analyzes, using a machine-learning model, images in the frames, where the machine-learning model has been trained to detect one or more objects-of-interest in the images. The computing device identifies a sequence-of-interest including consecutive frames of the video stream, where at least one object-of-interest was detected in at least one of the consecutive frames. The computing device generates a video package including the sequence-of-interest.

A video encoder may encode a picture of video data using merge estimation regions (MERs). The video encoder may determine merge candidate lists in parallel for coding units within a MER. The video encoder may also partition the picture of video data into coding units according to a constraint, wherein the constraint specifies that the partitioning is constrained such that, for each MER containing one or more coding units, the one or more coding units are completely in the MER, and for each coding unit containing one or more MERs, the MERs are completely in the coding unit.

A video encoder may encode a picture of video data using merge estimation regions (MERs). The video encoder may determine merge candidate lists in parallel for coding units within a MER. The video encoder may also partition the picture of video data into coding units according to a constraint, wherein the constraint specifies that the partitioning is constrained such that, for each MER containing one or more coding units, the one or more coding units are completely in the MER, and for each coding unit containing one or more MERs, the MERs are completely in the coding unit.

An electronic device is disclosed. The electronic device according to various embodiments comprises an image sensor, an image processor, and a control circuit electrically connected with the image sensor through a first interface and electrically connected with the image processor through a second interface, wherein the control circuit is configured to obtain a first image and a second image for an external object by using the image sensor through the first interface, transfer the first image to the image processor through the second interface such that the image processor determines attribute information related to correction of the first image, receive the attribute information from the image processor, compress the second image according to parameter information related to compression of the second image determined at least based on the attribute information, and transfer the compressed second image to the image processor through the second interface.

An electronic device is disclosed. The electronic device according to various embodiments comprises an image sensor, an image processor, and a control circuit electrically connected with the image sensor through a first interface and electrically connected with the image processor through a second interface, wherein the control circuit is configured to obtain a first image and a second image for an external object by using the image sensor through the first interface, transfer the first image to the image processor through the second interface such that the image processor determines attribute information related to correction of the first image, receive the attribute information from the image processor, compress the second image according to parameter information related to compression of the second image determined at least based on the attribute information, and transfer the compressed second image to the image processor through the second interface.

The present disclosure provides an image encoder. The image encoder is configured to encode an original image and reduce compression loss. The image encoder comprises an image signal processor and a compressor. The image signal processor is configured to receive a first frame image and a second frame image and generates a compressed image of the second frame image using a boundary pixel image of the first frame image. The image signal processor may include memory configured to store first reference pixel data which is the first frame image. The compressor is configured to receive the first reference pixel data from the memory and generate a bitstream obtained by encoding the second frame image based on a difference value between the first reference pixel data and the second frame image. The image signal processor generates a compressed image of the second frame image using the bitstream generated by the compressor.

The present disclosure provides an image encoder. The image encoder is configured to encode an original image and reduce compression loss. The image encoder comprises an image signal processor and a compressor. The image signal processor is configured to receive a first frame image and a second frame image and generates a compressed image of the second frame image using a boundary pixel image of the first frame image. The image signal processor may include memory configured to store first reference pixel data which is the first frame image. The compressor is configured to receive the first reference pixel data from the memory and generate a bitstream obtained by encoding the second frame image based on a difference value between the first reference pixel data and the second frame image. The image signal processor generates a compressed image of the second frame image using the bitstream generated by the compressor.

Embodiments disclosed in the present document relate to a method and an apparatus for synthesizing images. An electronic device according to various embodiments of the present invention comprises: an image sensor; an image processing processor; and a control circuit which is electrically connected to the image sensor through a first designated interface and to the image processing processor through a second designated interface. The control circuit may be configured to: when the read out speed of the image sensor is set to a first designated speed, receive, through the first designated interface, first image data that has been obtained by using the image sensor and has not been compressed by the image sensor; transfer the first image data to the image processing processor through the second designated interface; when the read out speed of the image sensor is set to a second designated speed, receive, through the first designated interface, second image data being obtained by using the image sensor and being compressed by the image sensor; decompress the compressed second image data by means of the control circuit; and transfer the decompressed second image data to the image processing processor through the second designated interface.

Embodiments disclosed in the present document relate to a method and an apparatus for synthesizing images. An electronic device according to various embodiments of the present invention comprises: an image sensor; an image processing processor; and a control circuit which is electrically connected to the image sensor through a first designated interface and to the image processing processor through a second designated interface. The control circuit may be configured to: when the read out speed of the image sensor is set to a first designated speed, receive, through the first designated interface, first image data that has been obtained by using the image sensor and has not been compressed by the image sensor; transfer the first image data to the image processing processor through the second designated interface; when the read out speed of the image sensor is set to a second designated speed, receive, through the first designated interface, second image data being obtained by using the image sensor and being compressed by the image sensor; decompress the compressed second image data by means of the control circuit; and transfer the decompressed second image data to the image processing processor through the second designated interface.