Abstract: Systems and methods are disclosed including a memory device and a processing device, operatively coupled with the memory device, to perform operations comprising: receiving a write data request to store write data to the memory device; determining a physical block address associated with the write data request; performing a bitwise operation on each bit of the physical block address to generate a seed value; generating an output sequence based on the seed value; performing another bitwise operation on the output sequence and the write data to generate a randomized sequence; and storing, on the memory device, the randomized sequence.

Abstract: System and methods are disclosed including a plurality of memory devices and a processing device, operatively coupled with the plurality of memory devices, to perform operations comprising: receiving, from a host system, encrypted write data appended with error-checking data; determining whether the encrypted write data contains an error based on the error-checking data; and responsive to determining that the encrypted write data contains an error, notifying the host system that the encrypted write data contains an error.

Abstract: Techniques are described for joint encoding and decoding of information symbols. In one embodiment, a method for joint encoding includes, in part, obtaining a sequence of information symbols, generating a plurality of cyclic codewords each corresponding to a portion of the sequence of information symbols, jointly encoding the plurality of cyclic codewords to generate at least one combined codeword, and providing the combined codeword to a device. The at least one combined codeword may be generated through Galois Fourier Transform (GFT).

Abstract: First and second data are identified, such that the second data is based on a modification operation performed on the first data. First error-checking data comprising a Cyclic Redundancy Check (CRC) value of the first data is identified. Incremental error-checking data is generated based on a difference between the first data and the second data. Updated first error-checking data is generated based on a combination of the first error-checking data and the incremental error-checking data. The updated first error-checking data is compared to second error-checking data generated from a CRC value of the second data to determine whether the second data contains an error.

Abstract: First data is received. First error-checking data generated based on a cyclic redundancy check (CRC) operation of the first data is received. Second data is generated by combining the first data with a first data pattern. Second error-checking data of the second data is generated by using a combination of the first error-checking data and a second data pattern. The second data pattern has a size that is based on the first data pattern.

Abstract: A request to store a first data is received. The first data and a first error-checking data are received. The first error-checking data can be based on a cyclic redundancy check (CRC) operation of the first data. A second data is generated by removing a portion of the first data. A second error-checking data of the second data is generated by using the first error-checking data and the removed portion of the first data.

Abstract: A request to store a first data is received. The first data and a first error-checking data are received. The first error-checking data can be based on a cyclic redundancy check (CRC) operation of the first data. A second data is generated by modifying the first data. A second error-checking data of the second data is generated by using the first error-checking data and a difference between the first data and the second data.

Abstract: Techniques are described for joint encoding and decoding of information symbols. In one embodiment, a method for joint encoding includes, in part, obtaining a sequence of information symbols, generating a plurality of cyclic codewords each corresponding to a portion of the sequence of information symbols, jointly encoding the plurality of cyclic codewords to generate at least one combined codeword, and providing the combined codeword to a device. The at least one combined codeword may be generated through Galois Fourier Transform (GFT).

Abstract: Methods, systems, and devices for cryptographic key management are described. A memory device can issue, by a firmware component, a command to generate a first cryptographic key for encrypting or decrypting user data stored on a memory device. The memory device can generate, by a hardware component, the first cryptographic key based on the command. The memory device can encrypt, by the hardware component, the first cryptographic key using a second cryptographic key and an initialization vector. The memory device can store the encrypted first cryptographic key in a nonvolatile memory device separate from the hardware component.

Abstract: A request to store a first data is received. The first data and a first error-checking data are received. The first error-checking data can be based on a cyclic redundancy check (CRC) operation of the first data. A second data is generated by removing a portion of the first data. A second error-checking data of the second data is generated by using the first error-checking data and the removed portion of the first data.

Abstract: A request to store a first data is received. The first data and a first error-checking data are received. The first error-checking data can be based on a cyclic redundancy check (CRC) operation of the first data. A second data is generated by modifying the first data. A second error-checking data of the second data is generated by using the first error-checking data and a difference between the first data and the second data.

Abstract: Techniques are described for joint encoding and decoding of information symbols. In one embodiment, a method for joint encoding includes, in part, obtaining a sequence of information symbols, generating a plurality of cyclic codewords each corresponding to a portion of the sequence of information symbols, jointly encoding the plurality of cyclic codewords to generate at least one combined codeword, and providing the combined codeword to a device. The at least one combined codeword may be generated through Galois Fourier Transform (GFT).

Abstract: Techniques are described for joint encoding and decoding of information symbols. In one embodiment, a method for joint encoding includes, in part, obtaining a sequence of information symbols, generating a plurality of cyclic codewords each corresponding to a portion of the sequence of information symbols, jointly encoding the plurality of cyclic codewords to generate at least one combined codeword, and providing the combined codeword to a device. The at least one combined codeword may be generated through Galois Fourier Transform (GFT).

Abstract: Techniques are described for joint encoding and decoding of information symbols. In one embodiment, a method for joint encoding includes, in part, obtaining a sequence of information symbols, generating a plurality of cyclic codewords each corresponding to a portion of the sequence of information symbols, jointly encoding the plurality of cyclic codewords to generate at least one combined codeword, and providing the combined codeword to a device. The at least one combined codeword may be generated through Galois Fourier Transform (GFT).

Abstract: In accordance with some embodiments of the present disclosure, a process for determining a direction vector of a sound source is described. The process may be implemented to detect, by a first sound sensor, a first sound pressure of a sound wave propagated from the sound source, and detect, by a second sound sensor, a second sound pressure of the sound wave. The process may further be implemented to determine, by a processor, the direction vector of the sound source relative to the first sound sensor and second sound sensor, wherein the direction vector is based on the first sound pressure, the second sound pressure, and a first distance between a first physical location of the first sound sensor and a second physical location of the second sound sensor.

Abstract: In accordance with some embodiments of the present disclosure, a process for determining a direction vector of a sound source is described. The process may be implemented to detect, by a first sound sensor, a first sound pressure of a sound wave propagated from the sound source, and detect, by a second sound sensor, a second sound pressure of the sound wave. The process may further be implemented to determine, by a processor, the direction vector of the sound source relative to the first sound sensor and second sound sensor, wherein the direction vector is based on the first sound pressure, the second sound pressure, and a first distance between a first physical location of the first sound sensor and a second physical location of the second sound sensor.