Abstract: Embodiments of the present technology provide non-volatile memory devices comprising memory dies that natively generate “exclusive OR (XOR) data pages” that can be used to recover data pages corrupted by UECC errors. Through memory die native-XOR data page generation, embodiments can recover data pages corrupted by UECC errors more efficiently, more rapidly, and with fewer resources than potential alternative technologies.

Abstract: A memory device includes a number of different memory dies and/or planes. One or more host operations, such as write operations and/or read operations, are performed on each memory die and/or plane in sequence. For example, from memory die 0 to memory die n. A garbage collection process is performed in parallel with the host operations. However, the garbage collection process is performed in a reverse order when compared with the order of the host operations. For example, the garbage collection process is performed from memory die n to memory die 0.

Abstract: Apparatuses, systems, methods, and computer program products for programming an unprogrammed upper page based on lower page programming are disclosed. An apparatus includes a non-volatile storage device and a controller. A controller includes a data component that is configured to receive a write request for a first page of a set of multi-level storage cells of a non-volatile storage device. A set of multi-level storage cells includes a first page and a second page. A controller includes a page component that is configured to determine that a write request does not comprise data for at least a portion of a second page of a set of multi-level storage cells. A controller includes a write component that is configured to program at least a portion of a second page of a set of multi-level storage cells with data of a first page of a set of multi-level storage cells.

Abstract: Apparatuses, systems, methods, and computer program products for programming an unprogrammed upper page based on lower page programming are disclosed. An apparatus includes a non-volatile storage device and a controller. A controller includes a data component that is configured to receive a write request for a first page of a set of multi-level storage cells of a non-volatile storage device. A set of multi-level storage cells includes a first page and a second page. A controller includes a page component that is configured to determine that a write request does not comprise data for at least a portion of a second page of a set of multi-level storage cells. A controller includes a write component that is configured to program at least a portion of a second page of a set of multi-level storage cells with data of a first page of a set of multi-level storage cells.

Abstract: Apparatuses, systems, methods, and computer program products are disclosed for triggering untriggered assertions in design verification. A method includes determining one or more assertions of a plurality of assertions that are not triggered while validating one or more behaviors of an integrated circuit (“IC”) design. A plurality of assertions may be intended to test a validity of one or more behaviors of an IC design. A method includes determining one or more dependencies for one or more untriggered assertions. One or more dependencies for an untriggered assertion may affect how an assertion is triggered. A method includes generating one or more testing scenarios for an IC design, based on one or more dependencies, for triggering one or more untriggered assertions.

Abstract: A memory controller receives a command to perform a memory operation, the command including a data packet comprising a plurality of data divisions. In response to receiving the command, for each individual memory device, the memory controller assigns to the individual memory device a respective data division, the respective data division including a plurality of data segments, and determines a single relative memory address associated with an address specified by the received command. The memory controller assembles a sub-request comprising a single contiguous instruction portion, which includes the single relative memory address and one or more instructions to perform the memory operation, and the respective data division, the respective data division following the single contiguous instruction portion, and transmits the sub-request to every memory portion of the number of memory portions of the individual memory device.

Abstract: A memory controller receives a command to perform a memory operation, the command including a data packet comprising a plurality of data divisions. In response to receiving the command, for each individual memory device, the memory controller assigns to the individual memory device a respective data division, the respective data division including a plurality of data segments, and determines a single relative memory address associated with an address specified by the received command. The memory controller assembles a sub-request comprising a single contiguous instruction portion, which includes the single relative memory address and one or more instructions to perform the memory operation, and the respective data division, the respective data division following the single contiguous instruction portion, and transmits the sub-request to every memory portion of the number of memory portions of the individual memory device.

Abstract: A first memory portion of a plurality of memory portions is configured to determine a designated position of the first memory portion (in a predefined sequence of the plurality of memory portions), and to receive a sub-request conveyed to the plurality of memory portions in the first memory device. The sub-request has a single contiguous instruction portion and a plurality of data segments. The single contiguous instruction portion has a single relative memory address and a single set of one or more instructions to write the data segments. The first memory portion detects that the received sub-request includes an instruction to write data, and in response, identifies a first data segment allocated to the first memory portion, places the first data segment into a buffer of the first memory portion, and writes the buffered first data segment to a location in non-volatile memory of the first memory portion.

Abstract: A memory controller receives a command to perform a memory operation, the command including a data packet comprising a plurality of data divisions. In response to receiving the command, for each individual memory device, the memory controller assigns to the individual memory device a respective data division, the respective data division including a plurality of data segments, and determines a single relative memory address associated with an address specified by the received command. The memory controller assembles a sub-request comprising a single contiguous instruction portion, which includes the single relative memory address and one or more instructions to perform the memory operation, and the respective data division, the respective data division following the single contiguous instruction portion, and transmits the sub-request to every memory portion of the number of memory portions of the individual memory device.

Abstract: A first memory portion of a plurality of memory portions is configured to determine a designated position of the first memory portion (in a predefined sequence of the plurality of memory portions), and to receive a sub-request conveyed to the plurality of memory portions in the first memory device. The sub-request has a single contiguous instruction portion and a plurality of data segments. The single contiguous instruction portion has a single relative memory address and a single set of one or more instructions to write the data segments. The first memory portion detects that the received sub-request includes an instruction to write data, and in response, identifies a first data segment allocated to the first memory portion, places the first data segment into a buffer of the first memory portion, and writes the buffered first data segment to a location in non-volatile memory of the first memory portion.

Abstract: A memory controller receives a command to perform a memory operation, the command including a data packet comprising a plurality of data divisions. In response to receiving the command, for each individual memory device, the memory controller assigns to the individual memory device a respective data division, the respective data division including a plurality of data segments, and determines a single relative memory address associated with an address specified by the received command. The memory controller assembles a sub-request comprising a single contiguous instruction portion, which includes the single relative memory address and one or more instructions to perform the memory operation, and the respective data division, the respective data division following the single contiguous instruction portion, and transmits the sub-request to every memory portion of the number of memory portions of the individual memory device.