Memory management

About: Memory management is a research topic. Over the lifetime, 16743 publications have been published within this topic receiving 312028 citations. The topic is also known as: memory allocation.

Single-electron memory for giga-to-tera bit storage

Abstract: Starting with a brief review on the single-electron memory and its significance among various single-electron devices, this paper addresses the key issues which one inevitably encounters when one tries to achieve giga-to-tera bit memory integration. Among the issues discussed are: room-temperature operation; memory-cell architecture; sensing scheme; cell-design guideline; use of nanocrystalline silicon versus lithography; array architecture; device-to-device variations; read/write error rate; and CMOS/single-electron-memory hybrid integration and its positioning among various memory architectures.

Supporting shared data structures on distributed memory architectures

Abstract: Programming nonshared memory systems is more difficult than programming shared memory systems, since there is no support for shared data structures. Current programming languages for distributed memory architectures force the user to decompose all data structures into separate pieces, with each piece “owned” by one of the processors in the machine, and with all communication explicitly specified by low-level message-passing primitives. This paper presents a new programming environment for distributed memory architectures, providing a global name space and allowing direct access to remote parts of data values. We describe the analysis and program transformations required to implement this environment, and present the efficiency of the resulting code on the NCUBE/7 and IPSC/2 hypercubes.

Methods and apparatus for file management using partitioned file metadata

Abstract: Management of files in a memory, such as a flash memory, includes storing in the memory a first node including a first type of metadata of the file, a second node including data of the file and a third node including a second type of metadata of the file including file status and memory location information for the first and second nodes. The third node may include a node including memory location information for the second node and a node including an index table that cross-references a memory location for the memory location information for the second node to a memory location of the first node. Methods and devices may be provided.

Systems, methods and devices for integrating end-host and network resources in distributed memory

Abstract: Systems, methods and devices for distributed memory management comprising a network component configured for network communication with one or more memory resources that store data and one or more consumer devices that use data, the network component comprising a switching device in operative communication with a mapping resource, wherein the mapping resource is configured to associate mappings between data addresses associated with memory requests from a consumer device relating to a data object and information relating to a storage location in the one or more memory resources associated with the data from the data object, wherein each data address has contained therein identification information for identifying the data from the data object associated with that data address; and the switching device is configured to route memory requests based on the mappings.

Method and system for controlling power consumption in a computer system

Abstract: A portable, software-controlled system for managing power consumption in a computer system. The power management system is integrated with the operating system of the computer system and is extensible to any add-on devices that are installed into the computer system. Upon the detection of a power down condition indicating that the computer system should be powered down, the power management system may verify that the computer system can be powered down without causing any of the devices that are connected to the computer to lose application data. If all of the devices agree that the computer system can be powered down, then each device has its state saved into memory and is powered down. Next, the state of each processor is saved into memory and power to the processors is disabled. In order to suspend the computer system, power to the memory is maintained, allowing each device state and processor state to be restored upon reboot. The computer system may be hibernated by writing all of the active memory (including each device state and processor state) to a secondary storage area and then powering off the entire computer system, including memory.