Abstract: In some examples, during execution of an application as an application asset is called, an asset map that is stored in a persistent memory device is searched for an asset identifier associated with the application asset. Using this asset identifier, an application asset stored in the persistent memory device is located. The persistent memory device is directly accessed by a processor executing the application. The processor processes the application asset from its location in the persistent memory device.

Abstract: A computing device that includes a plurality of memory devices and firmware to provide a migration data storage option that reserves a portion of a memory device to store, at least, encrypted metadata describing the physical layout information of the memory devices in preparation for migration of the memory devices.

Abstract: A computing device that includes a plurality of memory devices and firmware to provide a migration data storage option that reserves a portion of a memory device to store, at least, encrypted metadata describing the physical layout information of the memory devices in preparation for migration of the memory devices.

Abstract: In one example in accordance with the present disclosure, a method is described. According to the method, during execution of an application as an application asset is called, an asset map that is stored in a persistent memory device is searched for an asset identifier associated with the application asset. Using this asset identifier, an application asset stored in a persistent memory device is located. The persistent memory device is directly accessed by a processor executing the application. A processor the processes the application asset from its location in the persistent memory device.

Abstract: A non-volatile main memory stores state information of at least one program executing in the system, and metadata indicating whether a system is to be resumed to a prior state on a next start. As part of restarting the system from a mode in which power is removed from the system, the system is resumed to the prior state using the state information stored in the non-volatile main memory, in response to the metadata indicating that the system is to be resumed to the prior state.

Abstract: A system includes a non-volatile memory to store a page cache that contains pages of data allocated by an operating system, the pages in the page cache being persistent across a power cycle of the system. The page cache is located in a specified region of the non-volatile memory and is to store the pages of data without tagging a memory region.

Abstract: In one example, a computer having a processor and a byte-addressable non-volatile read-write main memory. The memory is partitioned into plural regions, each region having at least one defined operational property. At least one of the regions is a metadata region to store plural data sets. Each data set specifies a location in memory, and the at least one operational property, of a corresponding one of the regions.

Abstract: Examples disclosed herein relate to automatic persistent memory management. An example system includes a non-volatile memory to allocate space as persistent data space and a processor executing a program to generate program data to be stored as persistent data in the persistent data space. The example system can also include a memory manager to protect program data that is reachable from persistence roots from deallocation.

Abstract: Examples include a system comprising a non-volatile memory and a volatile memory. Examples migrate system memory between the volatile memory and the non-volatile memory. After migration, examples translate virtual addresses to physical memory addresses corresponding to the volatile memory and/or non-volatile memory.

Abstract: A system includes a non-volatile memory to store a page cache that contains pages of data allocated by an operating system, the pages in the page cache being persistent across a power cycle of the system. The page cache is located in a specified region of the non-volatile memory and is to store the pages of data without tagging a memory region.

Abstract: Examples include a system comprising a non-volatile memory and a volatile memory. Examples resume the system to a prior state using state information stored in the non-volatile memory. After resuming the system, examples migrate a system memory that is stored in the non-volatile memory to the volatile memory.

Abstract: A non-volatile main memory stores state information of at least one program executing in the system, and metadata indicating whether a system is to be resumed to a prior state on a next start. As part of restarting the system from a mode in which power is removed from the system, the system is resumed to the prior state using the state information stored in the non-volatile main memory, in response to the metadata indicating that the system is to be resumed to the prior state.

Abstract: In one example, a computer having a processor and a byte-addressable non-volatile read-write main memory. The memory is partitioned into plural regions, each region having at least one defined operational property. At least one of the regions is a metadata region to store plural data sets. Each data set specifies a location in memory, and the at least one operational property, of a corresponding one of the regions.