Abstract:
Techniques are described herein for a reconfigurable memory device that is configurable based on the type of interposer used to couple the memory device with a host device. The reconfigurable memory device may include a plurality components for a plurality of configurations. Various components of the reconfigurable memory die may be activated/deactivated based on what type of interposer is used in the memory device. For example, if a first type of interposer is used (e.g., a high-density interposer), the data channel may be eight data pins wide. In contrast, if second type of interposer is used (e.g., an organic-based interposer), the data channel may be four data pins wide. As such, a reconfigurable memory device may include data pins and related drivers that are inactive in some configurations.
Abstract:
Methods, systems, and devices for modular die configurations for multi-channel memory are described. A semiconductor component (e.g., a semiconductor wafer) may be configured with multiple rows and multiple columns of memory arrays, and associated channels. A row of memory arrays may be associated with a contact region extending along the row direction. The semiconductor component may also include control regions extending along the column direction between at least some of the columns of memory arrays. Each control region may include control circuitry for operating memory arrays on one or both sides of the control region. The channels and memory arrays of the semiconductor wafer may be grouped into one or more independently-operable memory dies, with each memory die having at least a portion of a control region and at least a portion of a contact region for operating the memory arrays of the memory die.
Abstract:
Methods, systems, and devices for clock locking for frame-based communications of memory devices are described. A memory system may include a memory device and a host device. The memory device may receive one or more frames of data from the host device, the one or more frames of data communicated by the host device using a first frame clock. The memory device may generate a second frame clock aligned with the one or more frames on receiving the one or more frames and align one or more operations of the memory device with the second frame clock. In some examples, the host device may receive a second set of frames from the memory device based on transmitting the first set of frames. The host device may align one or more operations of the host device with the second set of frames received from the memory device.
Abstract:
Embodiments of the invention describe driving data onto a bus. The embodiments include a data driver circuit having a data capture circuit coupled to the bus. The data capture circuit receives data relative to a write strobe signal and captures a first digit of the data responsive to a first edge of the write strobe signal and at least a second digit responsive to a second edge of the write strobe signal. The data driver circuit includes a feedback capture circuit that captures each digit in substantially the same manner as the data capture circuit, and generates a latch control signal indicative of when each digit is latched. The latch control signal is provided to a write control circuit that determines which digit was latched first relative to a timing, and generates a select control signal to drive captured digits onto the bus in the order the digits were received.