Abstract: The present disclosure relates to a device and a system for testing flatness. The device for testing flatness includes a base, a testing platform, and a ranging sensor. The testing platform is assembled on the base. The testing platform includes a supporting structure. The supporting structure is disposed on the side of the testing platform away from the base and is used to support a to-be-tested board. The structure matches the structure of the to-be-tested board. The ranging sensor is disposed on the side of the testing platform away from the base. After the to-be-tested board is placed on the testing platform, the ranging sensor is used to test distances between a number N of to-be-tested positions on the to-be-tested board and the ranging sensor, to obtain N pieces of distance information, and the N pieces of distance information are used to determine the flatness of the to-be-tested board, where N is an integer greater than 2.

Abstract: Embodiments of this application provide a peer-to-peer network scheduling method. The method includes: obtaining a fragment file list, where the fragment file list includes information about a plurality of fragment files, each fragment file includes one or more segments, and each segment corresponds to one segment number; downloading a missing segment in a target fragment file from another client device based on a downloading progress of downloading each segment of the target fragment file by each client device; and when a player requests the target fragment file, stopping downloading the missing segment in the target fragment file from the another client device, and downloading the missing segment in the target fragment file from a CDN server. According to the embodiments of this application, a computation amount and resource consumption of a Tracker server can be reduced, and data transmission efficiency of a P2P network can be improved.

Abstract: A method of reducing impact of variation in latency in data transport between clock domains of a physical layer transceiver having physical coding sublayer circuitry with a first clock in a first clock domain and physical medium attachment circuitry with a second clock in a second clock domain, includes determining, during an initial training of a link, a transmit latency value in a transmit direction from the first clock domain to the second clock domain, determining, during the initial training of the link, separately from determining the transmit latency value, a receive latency value in a receive direction from the second clock domain to the first clock domain, and using the transmit latency value and the receive latency value to account for latency in transfer of data between the first clock domain and the second clock domain following the initial training until a subsequent training.

Abstract: The present disclosure relates to template data processing, template data requesting, and template data presenting methods and devices, and a storage medium. The method includes obtaining a template subject and template key words matching the template subject and generating, according to the template key words, a first template message matching the template subject. The first template message includes the template key words. The method also includes generating a template identifier corresponding to the first template message and associating the template identifier with the corresponding first template message. The method further includes storing the template identifier and the corresponding first template message into a template library.

Abstract: The present disclosure relates to template data processing, template data requesting, and template data presenting methods and devices, and a storage medium. The method includes obtaining a template subject and template key words matching the template subject and generating, according to the template key words, a first template message matching the template subject. The first template message includes the template key words. The method also includes generating a template identifier corresponding to the first template message and associating the template identifier with the corresponding first template message. The method further includes storing the template identifier and the corresponding first template message into a template library.

Abstract: A method is disclosed for indicating a status of a transfer of data from a first device to a second device over a network. In one embodiment, the data includes one or more data frames. Each frame includes a header having one or more bits. The method includes setting a last bit of the one or more bits in the header of a last frame of the one or more data frames to a first value if the status of the transfer of data is good and setting the value of the last bit of the last data frame to a second value if the transfer of data failed. This results in a less congested, more efficient network.

Abstract: A method is disclosed for indicating a status of a transfer of data from a first device to a second device over a network. In one embodiment, the data includes one or more data frames. Each frame includes a header having one or more bits. The method includes setting a last bit of the one or more bits in the header of a last frame of the one or more data frames to a first value if the status of the transfer of data is good and setting the value of the last bit of the last data frame to a second value if the transfer of data failed. This results in a less congested, more efficient network.

Abstract: The present invention is related to the checking of encryption. Embodiments of the present invention are based on the discovery that sufficiently high reliability may be established without checking every encryption block. Instead, embodiments of the present invention provide that data being encrypted may be sampled at certain rate (which may be constant or varying) and only the sampled data may be checked. In general, embodiments of the present inventions are applicable to a fast encryption circuit that may encrypt an entire stream of incoming data into a stream of encrypted data and one or more slower (or slow) encryption circuit and/or one or more slow decryption circuit that operate(s) only on selected samples of the incoming or encrypted data in order to check the encryption of the fast circuit. Thus, encryption can be verified without incurring the costs of exhaustively checking all encrypted data.