Abstract: Examples of the present disclosure provide apparatuses and methods for direct data transfer. An example method comprises transferring data between a first device and a second device, wherein the first device is a bit vector operation device, and transforming the data using a data transform engine (DTE) by rearranging the data to enable the data to be stored on the first device when transferring the data between the second device and first memory device.

Abstract: An interconnect system includes host devices, one or more memory devices, and a routing system to connect the host devices and the one or more memory devices. Respective ones of the host devices include an interface to communicate packet requests over respective packetized links. Respective ones of the one or more memory devices include an interface to receive and respond to the packet requests over the respective packetized links. The routing system includes devices interconnected in a routing topology. Respective ones of the devices include a switch and interfaces. The routing system is to route the packet requests and responses between the host devices and respective memory device destinations over the respective packetized links. The host devices are to communicate cache coherency traffic to each other over at least one of the respective packetized links.

Abstract: The present disclosure includes apparatuses and methods related to memory alignment. An example method comprises performing an alignment operation on a first byte-based memory element and a second byte-based memory element such that a padding bit of the first byte-based memory element is logically adjacent to a padding bit of the second byte-based memory element and a data bit of the first byte-based memory element is logically adjacent to a data bit of the second byte-based memory element.

Abstract: Examples of the present disclosure provide apparatuses and methods for direct data transfer. An example method comprises transferring data between a first device and a second device, wherein the first device is a bit vector operation device, and transforming the data using a data transform engine (DTE) by rearranging the data to enable the data to be stored on the first device when transferring the data between the second device and first memory device.

Abstract: A user definition of a memory shape can be received and a multidimensional, contiguous, physical portion of a memory array can be allocated according to the memory shape. The user definition of the memory shape can include a quantity of contiguous columns of the memory array, a quantity of contiguous rows of the memory array, and a major dimension of the memory shape. The major dimension can correspond to a dimension by which to initially stride data stored in the memory shape.

Abstract: A user definition of a memory shape can be received and a multidimensional, contiguous, physical portion of a memory array can be allocated according to the memory shape. The user definition of the memory shape can include a quantity of contiguous columns of the memory array, a quantity of contiguous rows of the memory array, and a major dimension of the memory shape. The major dimension can correspond to a dimension by which to initially stride data stored in the memory shape.

Abstract: Examples of the present disclosure provide apparatuses and methods for target architecture determination. An example method comprises receiving an indication of a type of target architecture in a portion of source code and creating compiled code for the type of target architecture based on the indication.

Abstract: An interconnect system includes host devices, one or more memory devices, and a routing system to connect the host devices and the one or more memory devices. Respective ones of the host devices include an interface to communicate packet requests over respective packetized links. Respective ones of the one or more memory devices include an interface to receive and respond to the packet requests over the respective packetized links. The routing system includes devices interconnected in a routing topology. Respective ones of the devices include a switch and interfaces. The routing system is to route the packet requests and responses between the host devices and respective memory device destinations over the respective packetized links.

Abstract: Packet routing between memory devices and related apparatuses, methods, and memory systems are disclosed. An apparatus of a memory device includes a memory controller, two or more memory interfaces, packet relay logic configured to control the two or more memory interfaces, and a switch. The switch is configured to pass a received packet received through a first memory interface of the two or more memory interfaces to the memory controller responsive to a determination that the received packet indicates the memory device as a destination of the received packet. The switch is also configured to pass the received packet through a second memory interface of the two or more memory interfaces toward an other memory device responsive to a determination that the received packet indicates the other memory device as the destination of the received packet.

Abstract: Examples of the present disclosure provide apparatuses and methods for direct data transfer. An example method comprises transferring data between a first device and a second device, wherein the first device is a bit vector operation device, and transforming the data using a data transform engine (DTE) by rearranging the data to enable the data to be stored on the first device when transferring the data between the second device and first memory device.

Abstract: Methods for analyzing and improving a target computer application and corresponding systems and computer-readable mediums. A method includes receiving the target application. The method includes generating a parallel control flow graph (ParCFG) corresponding to the target application. The method includes analyzing the ParCFG by the computer system. The method includes generating and storing the modified ParCFG for the target application.

Abstract: The present disclosure includes apparatuses and methods related to memory alignment. An example method comprises performing an alignment operation on a first byte-based memory element and a second byte-based memory element such that a padding bit of the first byte-based memory element is logically adjacent to a padding bit of the second byte-based memory element and a data bit of the first byte-based memory element is logically adjacent to a data bit of the second byte-based memory element.

Abstract: Examples of the present disclosure provide apparatuses and methods for direct data transfer. An example method comprises transferring data between a first device and a second device, wherein the first device is a bit vector operation device, and transforming the data using a data transform engine (DTE) by rearranging the data to enable the data to be stored on the first device when transferring the data between the second device and first memory device.

Abstract: Examples of the present disclosure provide apparatuses and methods for target architecture determination. An example method comprises receiving an indication of a type of target architecture in a portion of source code and creating compiled code for the type of target architecture based on the indication.

Abstract: The present disclosure includes apparatuses and methods related to memory alignment. An example method comprises performing an alignment operation on a first byte-based memory element and a second byte-based memory element such that a padding bit of the first byte-based memory element is logically adjacent to a padding bit of the second byte-based memory element and a data bit of the first byte-based memory element is logically adjacent to a data bit of the second byte-based memory element.

Abstract: Methods for analyzing and improving a target computer application and corresponding systems and computer-readable mediums. A method includes receiving the target application. The method includes generating a parallel control flow graph (ParCFG) corresponding to the target application. The method includes analyzing the ParCFG by the computer system. The method includes generating and storing the modified ParCFG for the target application.

Abstract: A user definition of a memory shape can be received and a multidimensional, contiguous, physical portion of a memory array can be allocated according to the memory shape. The user definition of the memory shape can include a quantity of contiguous columns of the memory array, a quantity of contiguous rows of the memory array, and a major dimension of the memory shape. The major dimension can correspond to a dimension by which to initially stride data stored in the memory shape.

Abstract: A user definition of a memory shape can be received and a multidimensional, contiguous, physical portion of a memory array can be allocated according to the memory shape. The user definition of the memory shape can include a quantity of contiguous columns of the memory array, a quantity of contiguous rows of the memory array, and a major dimension of the memory shape. The major dimension can correspond to a dimension by which to initially stride data stored in the memory shape.

Abstract: Examples of the present disclosure provide apparatuses and methods related to a translation lookaside buffer in memory. An example method comprises receiving a command including a virtual address from a host translating the virtual address to a physical address on volatile memory of a memory device using a translation lookaside buffer (TLB).

Abstract: Examples of the present disclosure provide apparatuses and methods for target architecture determination. An example method comprises receiving an indication of a type of target architecture in a portion of source code and creating compiled code for the type of target architecture based on the indication.