Abstract:
An example apparatus includes a memory device having first sensing circuitry positioned adjacent an edge of an edge array section and selectably coupled to a row memory cells, the first sensing circuitry including a first sense amplifier selectably coupled via a first sense line to a first memory cell in the row and via a second sense line to the first memory cell. The example apparatus includes second sensing circuitry positioned at an opposite edge of the edge array section and selectably coupled to the row via a third sense line, the second sensing circuitry including a second sense amplifier selectably coupled via the third sense line to a second memory cell in the row. The example apparatus further includes a component positioned outside the edge array section and proximate the first sensing circuitry, the component configured to perform an operation based on data sensed by the first sensing circuitry.
Abstract:
Systems and methods are disclosed for reducing or eliminating address lines that need to be routed to multiple related embedded memory blocks. In particular, one or more inputs are added to a block RAM such that when one or more of the inputs are asserted, the address input to the Block RAM may be incremented prior to being used to retrieve data contents of the block RAM. Thus, if address is provided to the block RAM and the address increment signal is asserted, data may be read from location instead of , where N may be an integer. Block RAMs with such address arithmetic may be used to implement wide First-In-First-Out (FIFO) queues, wide memories, and/or data-burst accessible block RAMs.
Abstract:
The present disclosure includes apparatuses and methods related to performing corner turn operations using sensing circuitry. An example apparatus comprises a first group of memory cells coupled to an access line and a plurality of sense lines and a second group of memory cells coupled to a plurality of access lines and a sense line. The example apparatus comprises a controller configured to cause a corner turn operation using sensing circuitry on an element stored in the first group of memory cells resulting in the element being stored in the second group of memory cells.
Abstract:
A processor includes N-bit registers and a decode unit to receive a multiple register memory access instruction. The multiple register memory access instruction is to indicate a memory location and a register. The processor includes a memory access unit coupled with the decode unit and with the N-bit registers. The memory access unit is to perform a multiple register memory access operation in response to the multiple register memory access instruction. The operation is to involve N-bit data, in each of the N-bit registers comprising the indicated register. The operation is also to involve different corresponding N-bit portions of an M×N-bit line of memory corresponding to the indicated memory location. A total number of bits of the N-bit data in the N-bit registers to be involved in the multiple register memory access operation is to amount to at least half of the M×N-bits of the line of memory.
Abstract:
Examples of the present disclosure provide apparatuses and methods for performing shift operations in a memory. An example method comprises performing a shift operation a first element stored in a first group of memory cells coupled to a first access line and a number of sense lines of a memory array and a second element stored in a second group of memory cells coupled to a second access line and the number of sense lines of the memory array. The method can include shifting the first element by a number of bit positions defined by the second element by performing a number of AND operations, OR operations, SHIFT operations, and INVERT operations performed without transferring data via an input/output (I/O) line.
Abstract:
Systems and methods are provided for managing access to registers. In one embodiment, a system may include a processor and a plurality of registers. The processor and the plurality of registers may be integrated into a single device, or may be in separate devices. The plurality of registers may include a first set of registers that are directly accessible by the processor, and a second set of registers that are not directly accessible by the processor. The second set of registers may, however, be accessed indirectly by the processor via the first set of registers. In one embodiment, the first set of registers may include a register for selecting a register bank from the second set of registers, and a register for selecting a particular address within the register bank, to allow indirect access by the processor to the registers of the second set.
Abstract:
An operating method of a memory device comprises the following steps: a first page buffer receives a first input data to be programed into a first memory cell of the memory cells; a second page buffer receives a second input data to be programed into a second memory cell of the memory cells; and the first page buffer determines whether to shift a program verify (PV) voltage for the first input data according to the first and second input data.
Abstract:
Methods of operating a memory device include applying an increasing sense voltage to a plurality of memory cells, wherein memory cells of the plurality of memory cells each store data states representing two or more digits of data. The methods further include, in response to the increasing sense voltage reaching a particular level, initiating a transfer of data values of a particular digit of data for each memory cell of the plurality of memory cells while continuing to apply the increasing sense voltage to the plurality of memory cells.
Abstract:
A data processing node has an inter-node messaging module including a plurality of sets of registers each defining an instance of a GET/PUT context and a plurality of data processing cores each coupled to the inter-node messaging module. Each one of the data processing cores includes a mapping function for mapping each one of a plurality of user level processes to a different one of the sets of registers and thereby to a respective GET/PUT context instance. Mapping each one of the user level processes to the different one of the sets of registers enables a particular one of the user level processes to utilize the respective GET/PUT context instance thereof for performing a GET/PUT action to a ring buffer of a different data processing node coupled to the data processing node through a fabric without involvement of an operating system of any one of the data processing cores.
Abstract:
Time-constrained data copying between storage media is disclosed. When an electronic device is engaged in real-time operations, multiple data blocks may need to be copied from one storage medium to another storage medium within certain time constraints. In this regard, a data port is operatively controlled by a plurality of registers of a first register bank. The plurality of registers is copied from the first register bank to a second register bank within a temporal limit and while the data port remains under control of the plurality of registers being copied. By copying the plurality of registers within the temporal limit, it is possible to prevent operational interruption in the data port and reduce bandwidth overhead associated with the register copying operation.