Abstract:
Memory packages are employed in computer processing systems to house memory chips that store data for a processing circuit. The memory chips consume power each time they are accessed, which may be thousands of times per second, which generates heat that needs to be dissipated to avoid high temperatures that may damage memory circuits in the memory chips. The memory packages may include at least one memory chip disposed on a substrate. The memory packages may also include an active cooling device disposed between the memory chips and a package surface to actively conduct heat from the memory chips to the package surface, where it may be dissipated. The active cooling device May be on an opposite side of the memory chips from the substrate or may be disposed in a cavity in the substrate.
Abstract:
Systems and methods for enabling serial attached Non-Volatile (NV) memory are provided. In some embodiments, a method of operation of a computing system includes: in an NV Random Access Memory module (NVRAM) having a non-volatile device, a volatile memory device with data, a NV Controller unit (NVC), and a serial host interface, the method includes: receiving a request for data on the serial host interface and providing the requested data, from the volatile memory device, on the serial host interface. The method also includes: detecting a disruptive volatile memory event; copying the data of the volatile memory device to the NV device through the serial host interface based on the disruptive volatile memory event; and restoring the data of the volatile memory device from the NV device through the serial host interface. In this way, Dynamic Random-Access Memory (DRAM) level endurance and speed/latency can be provided while making it NV.
Abstract:
A memory management system, and method of operation thereof, includes: a primary device of a resilient storage module configured as a boot device for booting a computer system; an operational status received from the computer system; a secondary device of the resilient storage module configured as the boot device based on the operational status indicating a non-operational state; and a memory module controller of the resilient storage module for initiating a reboot operation using the secondary device as the boot device.
Abstract:
A system and method of manufacture of an integrated circuit device system includes mounting a first elevated device on a first riser positioned adjacent to a base device. The first elevated device includes a first device overhang that extends over the base device. A second elevated device can be mounted on a second riser adjacent to the first riser to allow the attachment of a second elevated device mounted above the first elevated device to achieve higher component densities.
Abstract:
Approaches, techniques, and mechanisms are disclosed for a method of operation of a Flash-based block storage system including: transferring a first data to a logical block address; storing the first data in a physical block, of a storage array, associated with the logical block address; receiving a trim command for the logical block address; establishing a reserved physical block associated with the logical block address of the trim command; transferring second data for writing to the logical block address of the trim command; releasing the reserved physical block associated with the logical block address; and writing the second data to the logical block address.
Abstract:
An interconnected memory system, and a method of operation thereof, including: a first discrete unit having a first unit processor and first unit memory module; a high-speed interconnect connected directly to the first unit memory module; and a second discrete unit having a second unit processor and a second unit memory module, the second unit memory module connected to the first unit memory module through the high-speed interconnect for utilizing the first unit memory module and the second unit memory module with the first unit processor.
Abstract:
Approaches, techniques, and mechanisms are disclosed for improving data retention using a virtual timer. A memory controller may use a raw bit error rate (RBER) to find an equivalent temperature-accelerated data age of a data item. The data age is computed by using the initial RBER of virtual timing data (VTD) as a virtual write in time of the data item compared to a present time using the current RBER of the VTD. When the data age is determined to exceed a data retention threshold, a data refresh is performed on the data item at the memory block on the memory device. The data age may be stored as virtual timing data on the memory block.
Abstract:
A method of manufacture of an enhanced capacity memory system includes: providing a dual in-line memory module carrier having a memory module and an integrated memory buffer coupled to the memory module; coupling a memory expansion board, having a supplementary memory module, to the dual in-line memory module carrier including attaching a bridge transposer; and providing a system interface connector coupled to the integrated memory buffer and the bridge transposer for controlling the memory module, the supplementary memory module, or a combination thereof.
Abstract:
A method of manufacture of an enhanced capacity memory system includes: providing a dual in-line memory module carrier having a memory module and an integrated memory buffer coupled to the memory module; coupling a memory expansion board, having a supplementary memory module, to the dual in-line memory module carrier including attaching a bridge transposer; and providing a system interface connector coupled to the integrated memory buffer and the bridge transposer for controlling the memory module, the supplementary memory module, or a combination thereof
Abstract:
An energy source for a memory device is disclosed. In particular, a memory device such as an insertable memory card may include a detachable portion that has an energy source positioned thereon. The junction between the primary portion and the detachable portion includes sufficient conductors to convey power from the energy source as well as any needed control signals. In an exemplary aspect, the detachable portion is positioned relative to the primary portion such that the detachable portion may be readily removed while the memory device is installed in a computing device. By providing a detachable energy source, the energy source may readily be replaced in the event of failure without having to replace the entirety of the memory device. Such flexibility may save time, money, and otherwise simplify design requirements.