Abstract: An integrated circuit device may include a first network on chip (NOC) circuit configured to receive a set of data and transfer the set of data to a first node of the first NOC circuitry. The first node is configured to transfer the set of data to a second NOC circuit of an additional integrated circuit device separate from the integrated circuit device.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: An integrated circuit device may include a first network on chip (NOC) circuit configured to receive a set of data and transfer the set of data to a first node of the first NOC circuitry. The first node is configured to transfer the set of data to a second NOC circuit of an additional integrated circuit device separate from the integrated circuit device.

Abstract: Various techniques are provided to implement multi-chip secure and programmable systems and methods. In one example, a multi-chip module system for providing an integrated programmable logic functionality and security functionality. The multi-chip module system includes a first die including a programmable logic device (PLD) configured to provide at least a portion of the programmable logic functionality. The multi-chip system further includes a second die including a security engine configured to perform at least a portion of the security functionality. The security engine is further configured to receive, from the first die, data associated with a first and second configuration image; perform a read operation on a memory for the second configuration image based on the data; and authenticate the second configuration image. The multi-chip system further includes a configuration engine configured to program the PLD according to the first configuration image. Related devices and methods are provided.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: A method includes receiving, via a communication link and at a device of an integrated circuit system, a cache line comprising a destination address, determining, via the device, a type of memory or storage associated with the destination address, the type of memory or storage comprising persistent or non-persistent, and tagging the cache line with metadata in a manner indicating the type of memory or storage associated with the destination address.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: A central processing unit (CPU) may be directly coupled to an accelerator dual in-line memory module (DIMM) card that is plugged into a DIMM slot. The CPU may include a master memory controller that sends requests or offloads tasks to the accelerator DIMM card via a low-latency double data rate (DDR) interface. The acceleration DIMM card may include a slave memory controller for translating the received requests, a decoder for decoding the translated requests, control circuitry for orchestrating the data flow within the DIMM card, hardware acceleration resources that can be dynamically programmed to support a wide variety of custom functions, and input-output components for interfacing with various types of non-volatile and/or volatile memory and for connecting with other types of storage and processing devices.

Abstract: Techniques described herein may relate to providing a programmable interconnect network (e.g., a programmable network-on-chip (NOC)). A method may include determining a transmission parameter, bonding one or more channels of an interconnect network based at least in part on the transmission parameter, and power-gating any unused channels after the bonding.

Abstract: A central processing unit (CPU) may be directly coupled to an accelerator dual in-line memory module (DIMM) card that is plugged into a DIMM slot. The CPU may include a master memory controller that sends requests or offloads tasks to the accelerator DIMM card via a low-latency double data rate (DDR) interface. The acceleration DIMM card may include a slave memory controller for translating the received requests, a decoder for decoding the translated requests, control circuitry for orchestrating the data flow within the DIMM card, hardware acceleration resources that can be dynamically programmed to support a wide variety of custom functions, and input-output components for interfacing with various types of non-volatile and/or volatile memory and for connecting with other types of storage and processing devices.

Abstract: An integrated circuit device may include a first network on chip (NOC) circuit configured to receive a set of data and transfer the set of data to a first node of the first NOC circuitry. The first node is configured to transfer the set of data to a second NOC circuit of an additional integrated circuit device separate from the integrated circuit device.

Abstract: In one embodiment, a method for power management includes receiving one or more state signals, each of the one or more state signals indicating whether a respective sub-block of a memory controller is idle or active, and determining whether to place the memory controller in an idle state or an active state based on the one or more state signals. The method also includes eating pulses of an input clock signal to produce a reduced-frequency clock signal if a determination is made to place the memory controller in the idle state, wherein the reduced-frequency clock signal is output to the memory controller. The method further includes passing the input clock signal to the memory controller if a determination is made to place the memory controller in the active state.

Abstract: A method of training chip select for a memory module. The method includes programming a memory controller into a mode wherein a command signal is active for a programmable time period. The method then programs a programmable delay line of the chip select with a delay value and performs initialization of the memory module. A read command is then sent to the memory module to toggle a state of the chip select. A number of data strobe signals sent by the memory module in response to the read command are counted. A determination is made whether the memory module is in a pass state or an error state based on a result of the counting.

Abstract: A method of training a command signal for a memory module. The method includes programming a memory controller into a mode where a single bit of an address signal is active for a single clock cycle. The method then programs a programmable delay line of the address signal with a delay value and performs initialization of the memory module. The memory module is then placed in a write leveling mode. A write leveling procedure is then performed and a response to the write leveling procedure is determined from the memory module. A determination is made whether the memory module is in a pass state or an error state based on the response.

Abstract: A method including sorting read/write commands initiated by a memory controller based upon a destination page within a memory device. The read/write commands having a highest priority level are determined. The commands are then categorized as either page movement commands or data movement commands. The page movement commands or data movement commands are sent to the memory device based upon a signal indicating a current direction of a data bus providing communication between the memory controller and the memory device and further based upon a priority level.

Abstract: A method of training chip select for a memory module. The method includes programming a memory controller into a mode wherein a command signal is active for a programmable time period. The method then programs a programmable delay line of the chip select with a delay value and performs initialization of the memory module. The memory module is then placed in a write leveling mode wherein placing the memory module in the write leveling mode toggles a state of the chip select. A write leveling procedure is then performed and a response thereto is determined from the memory module. A determination is made whether the memory module is in a pass state or an error state based on the response.