Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: Systems and methods are provided for managing memory associated with a mobile electronic device by using a combination of one or more selections input by a user. The user may enter these selections through an interface displayed on a mobile electronic device. The user interface may be integrated into at least a portion of the operating system software of the mobile electronic device, or the user interface may be included in an application installed on the mobile electronic device. The application, in certain instances, presents a virtual user interface provided by an external electronic device. Memory may be managed on a mobile electronic device according to various settings. Data managed on a user's electronic device may be moved or copied to one or more other electronic devices according to the user settings.

Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: Methods are provided for creating objects in a way that permits an API client to explicitly participate in memory management for an object created using the API. Methods for managing data object memory include requesting memory requirements for an object using an API and expressly allocating a memory location for the object based on the memory requirements. Methods are also provided for cloning objects such that a state of the object remains unchanged from the original object to the cloned object or can be explicitly specified.

Abstract: A multi-CPU data processing system, comprising: a multi-CPU processor, comprising: a first CPU configured with at least a first core, a first cache, and a first cache controller configured to access the first cache; and a second CPU configured with at least a second core, and a second cache controller configured to access a second cache, wherein the first cache is configured from a shared portion of the second cache.

Abstract: An information handling system and method allows implementation of fault-tolerant storage subsystems using multiple storage controllers not themselves originally designed to support the redundancy of such fault-tolerant storage subsystems. In accordance with one embodiment, uncommitted data is efficiently and rapidly replicated across multiple commodity storage controllers, enabling faster and less expensive fault-tolerant storage subsystems. A redundant storage controller system can improve the efficiency of data replication while providing failure protection against controller failure. A redundant storage controller system using shared memory commonly accessible to the storage controllers can be enhanced to replicate data within host memory regions to protect against non-volatile memory failure. In accordance with at least one embodiment, an efficient data replication mechanism can be provided between storage controllers using off-the-shelf hardware.

Abstract: Various systems and methods to generate automatically a procedure operative to distributively process a plurality of data sets stored on a plurality of memory modules. Under the instruction of the automatically generated procedure, compute elements request data sets relevant to a particular task, such data sets are fetched from memory modules by data interfaces which provide such data sets to the requesting compute elements, and the compute elements then process the received data sets until the task is completed. Relevant data sets are fetched and processed asynchronously, which means that the relevant data sets need not be fetched and processed in any particular order.

Abstract: Efficiently tracking activations to rows of memory using a reduced number of row activation counters that indicate whether a memory row is activated during an activation period and row activation counters that indicate a number of permitted activations to a memory row within a maximum activation window.

Abstract: Embodiments relate to accessing data in a memory. A method for accessing data in a memory coupled to a processor is provided. The method receives a memory reference instruction for accessing data of a first size at an address in the memory. The method determines an alignment size of the address in the memory. The method accesses the data of the first size in one or more groups of data by accessing each group of data block concurrently. The groups of data have sizes that are multiples of the alignment size.

Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: Systems, methods, and computer programs are disclosed for allocating memory in a portable computing device having a non-uniform memory architecture. One embodiment of a method comprises: receiving from a process executing on a first system on chip (SoC) a request for a virtual memory page, the first SoC electrically coupled to a second SoC via an interchip interface, the first SoC electrically coupled to a first local volatile memory device via a first high-performance bus and the second SoC electrically coupled to a second local volatile memory device via a second high-performance bus; determining a free physical page pair comprising a same physical address available on the first and second local volatile memory devices; and mapping the free physical page pair to a single virtual page address.

Abstract: Techniques for enabling end-to-end compression when performing host-based replication (HBR) are provided. In one set of embodiments, a hypervisor running on a host system at a primary site can intercept I/O write requests that originate from a virtual machine (VM) configured to be replicated via HBR, the I/O write requests being destined for a virtual disk (VMDK) of the VM. The hypervisor can further track VMDK file blocks that are modified by the I/O write requests and can retrieve the VMDK file blocks from a storage tier at the primary site. The hypervisor can then compress the retrieved VMDK file blocks and transmit the compressed blocks to a secondary site.

Abstract: The disclosure relates to an electronic memory system, and more specifically, to a system to emulate an electrically erasable programmable read-only memory, and a method to emulate an electrically erasable programmable read-only memory. According to an embodiment of the disclosure, a system to emulate an electrically erasable programmable read-only memory is provided, the system including a first memory section and a second memory section, wherein the first memory section comprises a plurality of storage locations configured to store data partitioned into a plurality of data segments and wherein the second memory section is configured to store information mapping a physical address of a data segment stored in the first memory section to a logical address of the data segment.

Abstract: According to one embodiment, a processor includes an instruction decoder to decode a first instruction to gather data elements from memory, the first instruction having a first operand specifying a first storage location and a second operand specifying a first memory address storing a plurality of data elements. The processor further includes an execution unit coupled to the instruction decoder, in response to the first instruction, to read contiguous a first and a second of the data elements from a memory location based on the first memory address indicated by the second operand, and to store the first data element in a first entry of the first storage location and a second data element in a second entry of a second storage location corresponding to the first entry of the first storage location.

Abstract: A cache controller with a pattern recognition mechanism can identify patterns in cache lines. Instead of transmitting the entire data of the cache line to a destination device, the cache controller can generate a meta signal to represent the identified bit pattern. The cache controller transmits the meta signal to the destination in place of at least part of the cache line.

Abstract: A system, method, and computer program product are provided for performing fast migration of a virtual resource from one node to another node. The method includes the steps of receiving a first request to migrate a resource from a first node to a second node, transmitting a second request to the second node to create a new instance of the resource, collecting a set of changes associated with the resource in a data structure, and transmitting the data structure that includes the set of changes to the second node. The second node generates the new instance of the resource based on a snapshot of the resource captured by the first node at a previous point in time and updates the new instance of the resource based on the set of changes such that the new instance of the resource on the second node matches the resource on the first node.

Abstract: Systems, methods, and computer programs are disclosed for allocating memory in a portable computing device having a non-uniform memory architecture.

Abstract: Various systems and methods to generate automatically a procedure operative to divide a processing task between two or more compute elements. A first compute element converts a code sequence into a sequence of executable instructions, which direct a second compute element to perform a first processing sub-task on a data set, and which also direct a third compute element to perform a second processing sub-task on the data set modified by the first processing sub-task. A memory module storing the data set may be embedded in a server with at least one of the compute elements. In some of the embodiments, all of the compute elements are part of a single system, whereas in alternative embodiments, at least some of the compute elements are part of two or more sub-systems.