Abstract:
An apparatus, system, and method for controlling data transfer to an output port of a serial data link interface in a semiconductor memory is disclosed. In one example, a flash memory device may have multiple serial data links, multiple memory banks and control input ports that enable the memory device to transfer the serial data to a serial data output port of the memory device. In another example, a flash memory device may have a single serial data link, a single memory bank, a serial data input port, a control input port for receiving output enable signals. The flash memory devices may be cascaded in a daisy-chain configuration using echo signal lines to serially communicate between memory devices.
Abstract:
An apparatus, system, and method for controlling data transfer to an output port of a serial data link interface in a semiconductor memory is disclosed. In one example, a flash memory device may have multiple serial data links, multiple memory banks and control input ports that enable the memory device to transfer the serial data to a serial data output port of the memory device. In another example, a flash memory device may have a single serial data link, a single memory bank, a serial data input port, a control input port for receiving output enable signals. The flash memory devices may be cascaded in a daisy-chain configuration using echo signal lines to serially communicate between memory devices.
Abstract:
A method for improving sub-word line response comprises generating a variable substrate bias determined by at least one user parameter. The variable substrate bias is applied to a sub-word line driver in a selected sub-block of a memory. A voltage disturbance on a sub-word line in communication with the sub-word line driver is minimized by modifying a variable substrate bias of the sub-word line driver to change a transconductance of the sub-word line driver thereby.
Abstract:
A system includes a memory controller and a plurality of memory devices that are connected in-series to the memory controller. The system operation is synchronous with clock that is provided in a fashion of source synchronous clock structure. The source synchronous clock structure includes a PLL (Phase-Locked Loop) that reshapes an incoming clock and a reshaped clock is provided. The PLL provides a shifted clock in phase of 90°. The phase-shifted clock and data are transmitted from the first device to the second device. Clock phase shift provides a center-edge clock with data to be transmitted. The devices are assigned with unique IDs. The least significant bit of the ID number of the last device is used for determination of clock alignment: edge- or center-aligned clock with data produced by the memory controller.
Abstract:
A plurality of memory devices of mixed type (e.g., DRAMs, SRAMs, MRAMs, and NAND-, NOR- and AND-type Flash memories) are serially interconnected. Each device has device type information on its device type. A specific device type (DT) and a device identifier (ID) contained in a serial input (SI) as a packet are fed to one device of the serial interconnection. The device determines whether the fed DT matches the DT of the device. In a case of match, a calculator included in the device performs calculation to generate an ID accompanying the fed DT for another device and the fed ID is latched in a register of the device. In a case of no-match, the ID generation is skipped and no ID is generated for another device. The DT is combined with the generated or the received ID depending on the device type match determination. The combined DT and ID is as a packet transferred to a next device. Such a device type match determination and ID generation or skip are performed in all devices of the serial interconnection. With reference to device type provided to the interconnected devices, IDs are sequentially generated. The SI containing the DT, the ID and an ID generation command is transmitted in a packet basis to a next device.
Abstract:
An apparatus, system, and method for controlling data transfer to an output port of a serial data link interface in a semiconductor memory is disclosed. In one example, a flash memory device may have multiple serial data links, multiple memory banks and control input ports that enable the memory device to transfer the serial data to a serial data output port of the memory device. In another example, a flash memory device may have a single serial data link, a single memory bank, a serial data input port, a control input port for receiving output enable signals. The flash memory devices may be cascaded in a daisy-chain configuration using echo signal lines to serially communicate between memory devices.
Abstract:
An apparatus, system, and method for controlling data transfer to an output port of a serial data link interface in a semiconductor memory is disclosed. In one example, a flash memory device may have multiple serial data links, multiple memory banks and control input ports that enable the memory device to transfer the serial data to a serial data output port of the memory device. In another example, a flash memory device may have a single serial data link, a single memory bank, a serial data input port, a control input port for receiving output enable signals. The flash memory devices may be cascaded in a daisy-chain configuration using echo signal lines to serially communicate between memory devices.
Abstract:
A system, method and machine-readable medium are provided to configure a non-volatile memory (NVM) including a plurality of NVM modules, in a system having a hard disk drive (HDD) and an operating system (O/S). In response to a user selection of a hybrid drive mode for the NVM, the plurality of NVM modules are ranked according to speed performance. Boot portions of the O/S are copied to a highly ranked NVM module, or a plurality of highly ranked NVM modules, and the HDD and the highly ranked NVM modules are assigned as a logical hybrid drive of the computer system. Ranking each of the plurality of NVM modules can include carrying out a speed performance test. This approach can provide hybrid disk performance using conventional hardware, or enhance performance of an existing hybrid drive, while taking into account relative performance of available NVM modules.
Abstract translation:在具有硬盘驱动器(HDD)和操作系统(O / S)的系统中,提供了一种系统,方法和机器可读介质来配置包括多个NVM模块的非易失性存储器(NVM)。 响应于用户选择NVM的混合驱动模式,根据速度性能对多个NVM模块进行排序。 O / S的引导部分被复制到高排名的NVM模块或多个高排名的NVM模块,并且HDD和高排名的NVM模块被分配为计算机系统的逻辑混合驱动器。 对多个NVM模块中的每一个进行排序可以包括进行速度性能测试。 这种方法可以使用常规硬件提供混合磁盘性能,或提高现有混合驱动器的性能,同时考虑可用的NVM模块的相对性能。
Abstract:
A technique for automatically establishing device IDs for devices in a daisy chain cascade arrangement. For each device, a write ID operation is initiated at the device to cause the device to enter a generate/write ID mode. While in this mode, a first value is input to the device. The device generates a second value from the first value. The device outputs the generated second value from the device to a next device in the daisy chain cascade which uses the second value as a first value for the next device. The device then establishes its ID from the first value. The process is repeated for all devices in the daisy chain cascade arrangement.
Abstract:
Applying an adapted block isolation method to serial-connected memory components may mitigate the effects of leakage current in serial-connected non-volatile memory devices. Responsive to determining that a given memory component is not an intended destination of a command, a plurality of core components of the given memory component may be placed in a low power consumption mode, while maintaining input/output components in an active operational mode. Conveniently, aspects of the disclosed system reduce off current without adding many logic blocks into the memory devices.