256 results about "Variable length" patented technology

The invention relates to a time series data acquisition method and device based on a dynamic time window and fingerprint deduplication. The method comprises the following steps: establishing a sliding time window with a variable length by taking the current system time as a reference, and only querying incremental time sequence data in the window; adaptively zooming the window by calculating the ratio of the collected data volume to the expected volume in real time; setting the trigger interval as half of the length of the sliding time window to form a time overlap, thereby capturing out-of-order data; key features of each piece of time series data are extracted, and data fingerprints are generated; a bloom filter is used for primary screening, and accurate duplicate removal is carried out in a key-value storage system; compared with an existing fixed polling scheme, the method has the advantages that resources can be dynamically adjusted along with data flow rate, system load is reduced, real-time performance is improved, data integrity is guaranteed by overlapped windows, zero repeated acquisition is guaranteed by fingerprint two-stage duplicate removal, and the method is applicable to efficient incremental synchronization scenes of transactional log-free time sequence databases such as InfluxDB and the like.

A variable length bus that is flexible to increase the number of short hanl transfers without severely impeding the total bus capability, thus increasing total bus throughput and decreasing average latency. The variable length bus also makes the distribution of the bus manageable using very simple RAPC cores, minimizing control overhead.

Certain aspects of the present disclosure provide data compression and channel coding techniques for variable length payloads. A method performed at a wireless node may include obtaining a payload for transmission, compressing the payload using a variable length compression technique to obtain a compressed payload having compressed payload bits of a first length, adding padding bits to the compressed payload to obtain a padded compressed payload. The padded compressed payload comprises information bits including the compressed payload bits and the padding bits. The method further includes encoding the padded compressed payload and outputting the encoded padded compressed payload.

The invention discloses a chirp interval modulation backscatter communication method and a chirp interval modulation backscatter communication system based on variable-length scrambling codes, which mainly solve the problems of high power consumption of backscatter labels and high system deployment cost in the prior art. According to the scheme, a sending end sends an environment LoRa signal; the backscattering label modulates information to be sent to an environment LoRa signal in a time interval modulation mode, and modulates a variable-length scrambling code to an anchor symbol; a receiving end performs frequency shift compensation on the backscattering signal by adopting a frequency shift compensation method, demodulates the backscattering signal by combining a sliding window with a variable-length scrambling code, intercepts a backscattering signal sample through the sliding window, and performs de-spreading and fast Fourier transform (FFT) on the signal in the window; the position of an anchor symbol is determined by detecting the maximum value of an FFT peak value, information sent by the backscattering label is recovered from the position of the anchor symbol, and data demodulation is completed. On the premise of keeping demodulation reliability, the power consumption of the tag is effectively reduced, the deployment cost of a backscatter communication system is reduced, and the method can be used for ultra-low power consumption Internet of Things communication.

In a locked RAID memory system, the present method generates variable-length compressed data in a RAID stripe, which is stored along with the inclusion of a single RAID parity segment (parity strip) for the entire stripe. If any one data segment (data strip) in the RAID stripe should fail, as determined by a CRC check, the data can be recovered by XORing the single RAID parity segment with all the non-errored data segments in the stripe. However, in order to determine which data segment has failed, successive data segments must be XORed, and the CRC check reperformed, until the CRC error stands corrected. In an embodiment, the successive data segments may be tested in parallel with suitable hardware. In an embodiment, the successive data segments may be tested sequentially, or semi-in-parallel and semi-sequentially.

To enable the decoding of data in a variable-length code sequence compressed using entropy coding with low latency.SOLUTION: A decoding device is configured to acquire a predetermined number of bits of data per clock cycle from a variable-length code sequence data encoded using entropy coding, and decode the predetermined number of bits of data per clock cycle using reference information obtained from the multiple predetermined numbers of bits of data.SELECTED DRAWING: Figure 1

Apparatuses and methods for efficient reporting. A method performed by a user equipment (UE) includes receiving information about channel state information (CSI) and determining the coefficient values. The CSI includes coefficient values that are encoded based on a variable-length (VL) encoder {(νk, Ak)} where a coefficient value Ak is encoded as a VL code νk, k=0, . . . , NVL−1, and NVL is a number of VL codes. The method further includes determining VL codes of the coefficient values based on the VL encoder and transmitting a CSI report including at least one indicator indicating the VL codes of the coefficient values.

Methods and systems are provided for decoding variable-length codes in a parallel process. A stream of variable-length code words is divided into fixed length words. A plurality of parallel sets of decoder circuits each receive, in parallel, a current fixed length word and a prior fixed length word. Each decoder circuit has a respective fixed leftover bit-count. Each decoder circuit generates a respective output that may include a decoded symbol and a new leftover bit-count. Each respective output is determined based on the respective current fixed length word, the respective prior fixed length word, and the respective fixed leftover bit-count. A set of selected decoder circuit outputs is generated for each set of the parallel sets of decoder circuits based on a set of first leftover bit-counts. One output from each set of selected decoder circuit outputs is selected as a final output based on a second prior leftover bit-count.

The present application discloses a wireless communication method, a system, an apparatus, a device, and a readable storage medium. In the present application, when a first communication terminal generates a first protocol data unit, a frame identifier in a frame header of the first protocol data unit may characterize a signaling type and a length type of a frame body, and the length type may be a fixed length type or a variable length type. In response to that the length of the frame body is fixed and the second communication terminal knows that the frame body in the first protocol data unit is of the fixed length type, the second communication terminal may take content at a fixed position as the frame body.

1. Name of the product in this design: Profile (B). 2. Application of this design: It is used for profiles of doors, windows and various industrial products. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the key design points: Design 1 3D view. 5. Design 1 is designated as the basic design. 6. Other matters requiring explanation: This design product is of variable length.

The present invention relates to an active stylus, a controller integrated circuit and a method performed thereby. A proportion of a part occupied by transmission of uplink signals transmitted from a sensor controller to a stylus in a communication resource that can be utilized for signal transceiving between the stylus and the sensor controller is reduced. The method of the present invention comprises a step 13 of synchronizing a sensor controller and an active stylus frame; a step of the sensor controller transmitting a first variable length instruction selected from a plurality of variable length instructions each capable of containing data of a variable number of bits, in a first frame, by an uplink signal of a variable time length corresponding to a number of bits of the first variable length instruction; a step S14 of the active stylus receiving the first variable length instruction by continuously decoding until an end of a detected time length; and a step S21 of the active stylus transmitting a downlink signal corresponding to the received first variable length instruction using a remaining part of the first frame.

1. Name of the product in this design: Profile (A). 2. Application of this design: It is used for profiles of doors, windows and various industrial products. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other matters requiring explanation: This design product is of variable length.

Range information associated with one or more objects is received from a storage system. One or more missing ranges and / or one or more mismatched ranges associated with the one or more objects is determined based on the received range information. A plurality of data chunk identifiers associated with a plurality of variable-length data chunks included in the one or more determined ranges associated with the one or more objects is provided to the storage system. A response that is used to identify among the plurality of variable-length data chunks, one or more variable-length data chunks not already stored in a storage associated with the storage system is received from the storage system. Content of the identified one or more variable-length data chunks is provided to the storage system.

In various examples there is a method for encoding a binary image, the method comprising receiving the binary image; performing run-length encoding on pixel data of the binary image to produce run-length encoded data; performing differential encoding on the run-length encoded data to produce differential encoded data; performing variable length encoding on the differential encoded data to produce variable length encoded data; and applying a lossless compressor to the variable length encoded data to produce compressed data, the compressed data being an encoded binary image.

1. Name of the product in this design: Profile (Timer 5514). 2. Purpose of this design: to be used as a profile for making timers. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1. 5. Other situations requiring explanation: This design is for products of variable length.

1. Name of the product in this design: Profile (EM170-1330102). 2. Application of this design: This design is intended for use in architectural decorative profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other situations requiring explanation: This design product is of variable length.

Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for generating a video. In one aspect, a method comprises receiving a first text prompt, using a video generation neural network to generate an initial segment of the video conditioned on the first text prompt, and updating the video for each of one or more update iterations by obtaining an additional text prompt for each update iteration and by using the video generation neural network to generate an additional segment of the video conditioned on the text prompt for the update iteration.

Techniques are disclosed for flow orchestration of variable length message flows, including using routing specified by implementation-independent flow orchestration language (SOL). In an example method, a computing system receives a variable length message including context information and a payload. The computing system determines, from the contextual information, routing information identifying at least one consumer of the variable length message. The computing system outputs the variable length message to the consumer.

The invention discloses a power CPS network attack intelligent positioning method and system based on a multi-target evolution CNN. The CNN is used as a multi-label classification model for power CPS network attack positioning; designing a variable-length hybrid coding strategy by taking architecture parameters such as a convolution layer number, a filter number, a convolution kernel size, a pooling kernel size, a full-connection layer number, a full-connection layer neuron number and a discarding rate in the CNN and hyper-parameters such as a learning rate, a batch size and an optimizer as decision variables; the method comprises the following steps of: taking the minimization of the number of model parameters of the CNN and (1-macro average F1 score) as an optimization objective function, designing a Pareto leading edge selection mechanism based on non-dominated sorting, and a block single-point crossing strategy and mutation operation oriented to hybrid coding individuals, and carrying out offline multi-objective optimization iteration to obtain a compromise optimization CNN giving consideration to attack positioning precision and model lightweight. And on-line deployment is carried out, and accurate detection of the intelligent positioning system for the power CPS network attack is efficiently realized.

A method performed by a user equipment may comprise receiving first DCI of a first DCI format and receiving second DCI of a second DCI format which is different than the first DCI. The second DCI format may specify a variable number of TPC command bits and may include no less than 6 bits of TPC information. The second DCI format may be a variable length DCI format. A number of information bits of the second DCI may be less than or equal to a number of information bit of the first DCI. The second DCI may be scrambled with a SRS RNTI.

Disclosed in the present invention is a real-time recursive CRC method. The method comprises: sequentially extracting from a real-time bit stream a1a2a3… binary sequences S1S2…Si… at non-fixed lengths; bisecting into left and right parts each binary sequence segment Si, so as to obtain sub-sequences, and repeatedly bisecting into left and right parts the sub-sequences until the lengths of finally obtained sub-sequences are less than a preset value; and calculating a CRC check value and check matrix of each final sub-sequence, and performing level-by-level upward merging calculation on left and right sub-sequences, so as to obtain a final check value of the entire real-time bit stream. Further disclosed in the present invention are a corresponding CRC apparatus and a computer storage medium and a program for implementing the CRC method. In the present invention, a method combining iteration with recursion is used to calculate, in real time, a check value of a variable-length binary sequence stream, thereby achieving logarithmic calculation time complexity and meeting CRC operation requirements of a real-time ultra-high-speed data stream.

1. Name of the product in this design: Profile (169). 2. Application of this design: for use in door and window profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D rendering 1. 5. Other situations requiring explanation: This design is for products of variable length.

1. Name of the product in this design: Profile (Auxiliary Material 85). 2. Application of this design: This design is intended for use as an accessory for doors and windows. 3. The key design features of this product are its overall shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other matters requiring explanation: This design product is of variable length.

The application discloses a point-to-multipoint scattering communication system based on variable length time slot. The system comprises a master station and multiple slave stations. In a data transmission stage, the master station occupies a dominant position of data transmission, that is, the master station decides to communicate with a specific slave station in a time period, and the slave stations are passive and communicate with the master station. The slave stations cannot communicate with each other. Due to the characteristics of the scattering channel, the master station can only communicate with one slave station at the same time. The master station accesses multiple slave stations in a time division multiplexing mode, adjusts the time slot length of data transmission access according to the current data transmission requirement of the slave station, adopts different transmission modes, and turns to the next slave station after completing communication with the current slave station. According to the application, the time slot length is adjusted according to the data transmission requirement of the slave station, and compared with an equal length time slot allocation mechanism, the resource utilization rate can be effectively improved.

1. Name of the product in this design: Profile (ECO110103). 2. Application of this design: This design is used for door and window profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other matters requiring explanation: This design product is of variable length.

1. Name of the product in this design: Profile (2). 2. Application of this design: for door and window profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key features: the front view. 5. Other matters requiring explanation: This product is of variable length.

1. Name of the product in this design: Profile. 2. Purpose of this design: Corner and edge decoration. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other situations requiring explanation: The product of this design is of variable length.

1. Name of the product in this design: Building Profile. 2. Application of this design: This design is intended for use in building profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other situations requiring explanation: This design is for products of variable length.

1. Name of the product in this design: Profile (6). 2. Application of this design: for use in door and window profiles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other matters requiring explanation: This design product is of variable length.

A method for compressing RDF tuples. The method including obtaining RDF tuples, obtaining a dictionary of indices, encoding for each RDF tuple the indices attributed to the subject and the object, grouping RDF tuples sharing the same predicate and for each group sorting the RDF tuples by considering the encoding of the subject and the object, and for each group of sorted RDF tuples, serializing the index of the shared predicate, serializing the encoding of the subject and the object of a first RDF tuple, and for each RDF tuple of the group of sorted RDF tuples subsequent to the first RDF tuple of the group, computing a difference between the encoding of the subject and the object of a current RDF tuple and the encoding of the subject and the object of a previous RDF tuple, and serializing the computed difference in a form of a variable-length integer.