Abstract: A method and an apparatus for processing a video are provided technology. The method may include: separating a foreground image and a background image from a video frame in the target video stream, in response to acquiring a target video stream; adding a to-be-displayed content at a target display position in the background image to obtain a processed background image; and combining the foreground image and the processed background image to obtain a target video frame. The present disclosure may directly render the to-be-displayed content in the background, so that the content displayed in the background does not block a body in the foreground, such as person.

Abstract: The present disclosure discloses a method for searching the shortest path of must-pass node, which includes the following processing steps: S1, constructing a Thiessen polygon; S2, when start node of must-pass nodes and end node of must-pass node are not the same must-pass node, performing processing of S3; S3, starting from the Thiessen polygon where the start node of must-pass nodes is located, querying the adjacent Thiessen polygons and merging them into the first merged polygon; S4, based on the first merged polygon, querying the unprocessed adjacent Thiessen polygons to merge the second merged polygon; S5, merging the isolated Thiessen polygon into a certain adjacent merged polygon with common edge; S6, deleting the edge lines of two vertices in Denaulay triangle that are not in the same merged polygon; S7.

Abstract: A method and an apparatus for processing a video are provided technology. The method may include: separating a foreground image and a background image from a video frame in the target video stream, in response to acquiring a target video stream; adding a to-be-displayed content at a target display position in the background image to obtain a processed background image; and combining the foreground image and the processed background image to obtain a target video frame. The present disclosure may directly render the to-be-displayed content in the background, so that the content displayed in the background does not block a body in the foreground, such as person.

Abstract: The present application provides a live broadcast processing method, an apparatus, a device, and a storage medium thereof, where the method includes: receiving, by a live broadcast server, source media data sent by a first terminal device of a video live broadcast side, where the source media data includes video data and audio data; translating the audio data into audio data in at least one target language; acquiring a playing language required by a video playing side, and acquiring audio data corresponding to the playing language from the audio data in the at least one target language; merging the audio data corresponding to the playing language with the video data to obtain target media data; and transmitting the target media data to a second terminal device of the video playing side for playback.

Abstract: Embodiments provide a capacitive touch screen, including: an outer screen, having a driving unit array and a sensing unit array; an inner screen; and a connector connecting the outer screen to the inner screen. The connector includes at least one first surface connected to a surface of the outer screen, and at least one second surface connected to a surface of the inner screen. In a non-visible region of the outer screen, a plurality of electrode wires from the driving unit array or from the sensing unit array are divided into at least two groups, and the at least two groups of electrode wires are led out separately. The at least one first surface does not contact the plurality of electrode wires.

Abstract: The present application provides a live broadcast processing method, an apparatus, a device, and a storage medium thereof, where the method includes: receiving, by a live broadcast server, source media data sent by a first terminal device of a video live broadcast side, where the source media data includes video data and audio data; translating the audio data into audio data in at least one target language; acquiring a playing language required by a video playing side, and acquiring audio data corresponding to the playing language from the audio data in the at least one target language; merging the audio data corresponding to the playing language with the video data to obtain target media data; and transmitting the target media data to a second terminal device of the video playing side for playback.

Abstract: A method of forming an integrated circuit is disclosed. The method includes: (i) forming at least a pair of optoelectronic devices from at least a first wafer material arranged on a semiconductor substrate, the first wafer material different to silicon; (ii) etching the first wafer material to form a first recess to be filled with a second material; (iii) processing the second material to form a waveguide for coupling the pair of optoelectronic devices to define an optical interconnect; and (iv) bonding at least one partially processed CMOS device layer having at least one transistor to the second semiconductor substrate to form the integrated circuit, the partially processed CMOS device layer arranged adjacent to the optical interconnect. An integrated circuit is also disclosed.

Abstract: Embodiments provide a capacitive touch screen, including: an outer screen, having a driving unit array and a sensing unit array; an inner screen; and a connector connecting the outer screen to the inner screen. The connector includes at least one first surface connected to a surface of the outer screen, and at least one second surface connected to a surface of the inner screen. In a non-visible region of the outer screen, a plurality of electrode wires from the driving unit array or from the sensing unit array are divided into at least two groups, and the at least two groups of electrode wires are led out separately. The at least one first surface does not contact the plurality of electrode wires.

Abstract: A method of forming an integrated circuit is disclosed. The method includes: (i) forming at least a pair of optoelectronic devices from at least a first wafer material arranged on a semiconductor substrate, the first wafer material different to silicon; (ii) etching the first wafer material to form a first recess to be filled with a second material; (iii) processing the second material to form a waveguide for coupling the pair of optoelectronic devices to define an optical interconnect; and (iv) bonding at least one partially processed CMOS device layer having at least one transistor to the second semiconductor substrate to form the integrated circuit, the partially processed CMOS device layer arranged adjacent to the optical interconnect. An integrated circuit is also disclosed.

Abstract: A method (100) of forming an integrated circuit is disclosed. The method comprises: (i) forming at least a pair of optoelectronic devices from at least a first wafer material arranged on a semiconductor substrate, the first wafer material different to silicon; (ii) etching the first wafer material to form a first recess to be filled with a second material; (iii) processing (104) the second material to form a waveguide for coupling the pair of optoelectronic devices to define an optical interconnect; and (iv) bonding (106) at least one partially processed CMOS device layer having at least one transistor to the second semiconductor substrate to form the integrated circuit, the partially processed CMOS device layer arranged adjacent to the optical interconnect. An integrated circuit is also disclosed.

Abstract: A method (100) of forming an integrated circuit is disclosed. The method comprises: (i) forming at least a pair of optoelectronic devices from at least a first wafer material arranged on a semiconductor substrate, the first wafer material different to silicon; (ii) etching the first wafer material to form a first recess to be filled with a second material; (iii) processing (104) the second material to form a waveguide for coupling the pair of optoelectronic devices to define an optical interconnect; and (iv) bonding (106) at least one partially processed CMOS device layer having at least one transistor to the second semiconductor substrate to form the integrated circuit, the partially processed CMOS device layer arranged adjacent to the optical interconnect. An integrated circuit is also disclosed.

Abstract: In a synchronous multi-port bank memory, registers/buffers receive a read/write signal and an address signal from each of external ports, receive and send a data signal to and from each of the external ports, and receive and send a port block signal. An access conflict management circuit receives the address signals from the registers and buffers and generates the port block signal when an access conflict to the bank occurs. A switching network receives the read/write signal and the address signal from the registers/buffers and generates a bank selection signal when no port block signal is received, so as to activate the selected bank. Thus, memory access cycle time is shortened. A synchronous 1-port bank memory is also constructed similarly.

Abstract: In a synchronous multi-port bank memory, registers/buffers receive a read/write signal and an address signal from each of external ports, receive and send a data signal to and from each of the external ports, and receive and send a port block signal. An access conflict management circuit receives the address signals from the registers and buffers and generates the port block signal when an access conflict to the bank occurs. A switching network receives the read/write signal and the address signal from the registers/buffers and generates a bank selection signal when no port block signal is received, so as to activate the selected bank. Thus, memory access cycle time is shortened. A synchronous 1-port bank memory is also constructed similarly.