Abstract:
A message order-preserving method includes that a first electronic device generates a first message to be sent to a second electronic device, and starts to send the first message to the second electronic device. The first electronic device generates a second message to be sent to the second electronic device, and before sending the second message to the second electronic device, determines that sending of the first message is not completed. The first electronic device sends an integration message including the second message to the second electronic device. After receiving the integration message, the second electronic device displays the first message and the second message based on the integration message.
Abstract:
Embodiments of the present invention provide a video coding method for INTRA and a video coding apparatus. The method includes performing a traversal prediction on a current-layer coding unit CU, a prediction mode of a sub-Cu that is divided, from the current-layer CU, and a syntax element that is needed for coding of the current-layer CU; and if the best CU division mode is to divide the current-layer CU into four sub-CUs whose depth is N+1, and prediction modes of the four sub-CUs whose depth is N+1 are the same, performing coding, by using the current-layer CU as a coding unit, on the current-layer CU according to the best CU division mode, the prediction mode of the sub-CU that is divided from the current-layer CU according to the best CU division mode, and the syntax element that is needed for coding of the current-layer CU.
Abstract:
A video compression method and a video compressor are provided to solve problems of huge resource consumption and high costs caused by performing both H.264 compression and HEVC compression. The method specifically includes: reading video signal data by using a sliding window to generate bitstream data, where bitstream data generated by reading the video signal data according to a first format is first bitstream data, and bitstream data generated by reading the video signal data according to a second format is second bitstream data; and coding the bitstream data to generate a bitstream, where a bitstream generated by coding the first bitstream data is a first bitstream, and a bitstream generated by coding the second bitstream data is a second bitstream, where the second format is a format preset according to the first format. The present invention is applied to video signal compression.
Abstract:
A message order-preserving method includes that a first electronic device generates a first message to be sent to a second electronic device, and starts to send the first message to the second electronic device. The first electronic device generates a second message to be sent to the second electronic device, and before sending the second message to the second electronic device, determines that sending of the first message is not completed. The first electronic device sends an integration message including the second message to the second electronic device. After receiving the integration message, the second electronic device displays the first message and the second message based on the integration message.
Abstract:
A video compression method and a video compressor are provided to solve problems of huge resource consumption and high costs caused by performing both H.264 compression and HEVC compression. The method specifically includes: reading video signal data by using a sliding window to generate bitstream data, where bitstream data generated by reading the video signal data according to a first format is first bitstream data, and bitstream data generated by reading the video signal data according to a second format is second bitstream data; and coding the bitstream data to generate a bitstream, where a bitstream generated by coding the first bitstream data is a first bitstream, and a bitstream generated by coding the second bitstream data is a second bitstream, where the second format is a format preset according to the first format. The present invention is applied to video signal compression.
Abstract:
An active noise cancellation device includes a first input for receiving a microphone signal from the microphone, a first electrical compensation path and a second electrical compensation path being coupled in parallel between a first node and the first input to provide a first noise canceling signal for a feed-backward prediction of a noise source, a third electrical compensation path and a fourth electrical compensation path being coupled in parallel between a second node and the first input to provide a second noise canceling signal for a feed-forward prediction of the noise source.
Abstract:
An active noise cancellation device for cancelling a primary acoustic path between a noise source and a microphone by an overlying secondary acoustic path between a canceling loudspeaker and the microphone, the device comprising: a first input for receiving a microphone signal from the microphone; wherein the first electrical compensation path and the second electrical compensation path are coupled in parallel between a first node and the first input to provide the first noise canceling signal for a feed-backward prediction of the noise source; wherein the third electrical compensation path and the fourth electrical compensation path are coupled in parallel between a second node and the first input to provide the second noise canceling signal for a feed-forward prediction of noise source.
Abstract:
An active noise cancellation device for cancelling a primary acoustic path between a noise source and a microphone by an overlying secondary acoustic path between a canceling loudspeaker and the microphone, the device comprising: a first input for receiving a microphone signal from the microphone; wherein the first electrical compensation path and the second electrical compensation path are coupled in parallel between a first node and the first input to provide the first noise canceling signal for a feed-backward prediction of the noise source; wherein the third electrical compensation path and the fourth electrical compensation path are coupled in parallel between a second node and the first input to provide the second noise canceling signal for a feed-forward prediction of noise source.