Abstract: An integrated circuit may include integrated memory that is formed from a chain of memory blocks. Each memory block may have configurable input and output circuits. The configurable input and output circuits may be interposed between memory circuitry such as a memory array from circuitry external to the memory circuitry. The configurable input and output circuits may have upstream and downstream memory block connection ports. In such a way, configurable input and output circuits in a first memory block may pass control and address signals and data to configurable input and output circuits in a second memory block. By using the configurable input and output circuits, the integrated memory in the integrated circuit may operate to accommodate large bandwidth flows without using the general routing fabric of the integrated circuit.

Abstract: Systems and method include one or more die coupled to an interposer. The interposer includes interconnection circuitry configured to electrically connect the one or more die together via the interposer. The interposer also includes translation circuitry configured to translate communications as they pass through the interposer. For instance, in the interposer, the translation circuitry translates communications, in the interposer, from a first protocol of a first die of the one or more die to a second protocol of a second die of the one or more die.

Abstract: A multichip package having a main die coupled to one or more daughter dies is provided. The main die may include embedded universal interface blocks (UIB) each of which can be used to interface with a corresponding daughter die to support high bandwidth parallel or serial communications. Each UIB may include an integrated processor subsystem and associated pattern sequencing logic to perform interface initialization and margining operations. Each UIB may perform simultaneous accesses to a daughter die across one or more channels. Each UIB may also include multiple phase-locked loop circuits for providing different clock signals to different portions of the UIB and a 2× clock phase generation logic. Each UIB may include multiple IO modules, each of which may optionally include its own duty cycle correction circuit. Each IO module may include buffer circuits, each of which may have a de-emphasis control logic for adjusting buffer drive strength.

Abstract: An integrated circuit may include a memory controller circuit for communicating with an off-chip memory device. The memory controller is operable in a read-write major mode that is capable of dynamically adapting to any memory traffic pattern, which results in improved memory scheduling efficiency across different user applications. The memory controller may include at least a write command queue, a read command queue, an arbiter, and a command scheduler. The command scheduler may monitor a write command count, a read command count, a write stall count, and a read stall count to determine whether to dynamically adjust a read burst threshold setting and a write burst threshold setting.

Abstract: A multichip package having a main die coupled to one or more daughter dies is provided. The main die may include embedded universal interface blocks (UIB) each of which can be used to interface with a corresponding daughter die to support high bandwidth parallel or serial communications. Each UIB may include an integrated processor subsystem and associated pattern sequencing logic to perform interface initialization and margining operations. Each UIB may perform simultaneous accesses to a daughter die across one or more channels. Each UIB may also include multiple phase-locked loop circuits for providing different clock signals to different portions of the UIB and a 2× clock phase generation logic. Each UIB may include multiple IO modules, each of which may optionally include its own duty cycle correction circuit. Each IO module may include buffer circuits, each of which may have a de-emphasis control logic for adjusting buffer drive strength.

Abstract: Systems or methods of the present disclosure may provide high-bandwidth, low-latency connectivity for inter-die and/or intra-die communication of a modularized integrated circuit system. Such an integrated circuit system may include a first die of fabric circuitry sector(s), a second die of modular periphery intellectual property (IP), a passive silicon interposer coupling the first die to the second die, and a modular interface that includes a network-on-chip (NOC). The modular interface may provide high-bandwidth, low-latency communication between the first die and the second, between the fabric circuitry sector(s), and between the first die and a third die.

Abstract: A method for dynamically configuring multiple processors based on needs of applications includes receiving, from an application, an acceleration request message including a task to be accelerated. The method further includes determining a type of the task and searching a database of available accelerators to dynamically select a first accelerator based on the type of the task. The method further includes sending the acceleration request message to a first acceleration interface located at a configurable processing circuit. The first acceleration interface sends the acceleration request message to a first accelerator, and the first accelerator accelerates the task upon receipt of the acceleration request message.

Abstract: Systems or methods of the present disclosure may improve scalability (e.g., component scalability, product variation scalability) of integrated circuit systems by disaggregating periphery intellectual property (IP) circuitry into modular periphery IP tiles that can be installed as modules. Such an integrated circuit system may include a first die that includes programmable fabric circuitry and a second die that that includes a periphery IP tile. The periphery IP tile may be disaggregated from the programmable fabric die and may be communicatively coupled to the first die via a modular interface.

Abstract: Systems or methods of the present disclosure may facilitate meeting connectivity demands between the dies of the modularized integrated circuits. Such an integrated circuit system may include a first die of programmable fabric circuitry that is communicatively coupled to a second die of modular periphery intellectual property (IP) tile via a modular interface. The modular interface may enable communication between a first microbump of the first die and a second microbump of the second die using a time-division multiplexing (TDM) technique. The modular interface may also enable communication between the first microbump and the second microbump using a wire-to-wire connection that does not comprise the TDM technique.

Abstract: Systems or methods of the present disclosure may provide high-bandwidth, low-latency connectivity for inter-die and/or intra-die communication of a modularized integrated circuit system. Such an integrated circuit system may include a first die of fabric circuitry sector(s), a second die of modular periphery intellectual property (IP), a passive silicon interposer coupling the first die to the second die, and a modular interface that includes a network-on-chip (NOC). The modular interface may provide high-bandwidth, low-latency communication between the first die and the second, between the fabric circuitry sector(s), and between the first die and a third die.

Abstract: The presently disclosed programmable fabric die includes a direct fabric die-to-fabric die interconnect interface column disposed in a sector of programmable logic fabric. Each row of the interconnect interface column includes at least one interconnect interface that is electrically coupled to a microbump. The microbump is configured to be electrically coupled to another microbump of another interconnect interface of another fabric die through an interposer. The fabric die may include multiple interconnect interface columns that each extend deep into the sector, enabling low latency connections between the fabric dies and reducing routing congestion. In some embodiments, the fabric die may include interconnect interfaces that are instead distributed throughout logic blocks of the sector.

Abstract: A multichip package may include at least a main die mounted on a substrate. The main die may be coupled to one or more transceiver dies also mounted on the substrate. The main die may include one or more universal interface blocks configured to interface with an on-package memory device or an on-package expansion die, both of which can be mounted on the substrate. The expansion die may include external memory interface (EMIF) components for communicating with off-package memory devices and/or bulk random-access memory (RAM) components for storing large amounts of data for the main die. Smaller input-output blocks such as GPIO (general purpose input-output) or LVDS (low-voltage differential signaling) interfaces may be formed within the core fabric of the main die without causing routing congestion while providing the necessary clock source.

Abstract: Systems and methods for providing capability of access to distributed memory blocks using a global address scheme in a programmable logic device. Each of the distributed memory blocks includes routing circuitry that receives data, and in a first mode, decodes whether the data is intended for a respective distributed memory block. In a second mode, the data may bypass routing circuitry. Furthermore, the data may be received at the distributed memory block via cascade connections of distributed memory blocks in a column and/or via register in the programmable fabric of the programmable logic device.

Abstract: An integrated circuit may include integrated memory that is formed from a chain of memory blocks. Each memory block may have configurable input and output circuits. The configurable input and output circuits may be interposed between memory circuitry such as a memory array from circuitry external to the memory circuitry. The configurable input and output circuits may have upstream and downstream memory block connection ports. In such a way, configurable input and output circuits in a first memory block may pass control and address signals and data to configurable input and output circuits in a second memory block. By using the configurable input and output circuits, the integrated memory in the integrated circuit may operate to accommodate large bandwidth flows without using the general routing fabric of the integrated circuit.

Abstract: A multichip package having a main die coupled to one or more daughter dies is provided. The main die may include embedded universal interface blocks (UIB) each of which can be used to interface with a corresponding daughter die to support high bandwidth parallel or serial communications. Each UIB may include an integrated processor subsystem and associated pattern sequencing logic to perform interface initialization and margining operations. Each UIB may perform simultaneous accesses to a daughter die across one or more channels. Each UIB may also include multiple phase-locked loop circuits for providing different clock signals to different portions of the UIB and a 2× clock phase generation logic. Each UIB may include multiple IO modules, each of which may optionally include its own duty cycle correction circuit. Each IO module may include buffer circuits, each of which may have a de-emphasis control logic for adjusting buffer drive strength.

Abstract: The presently disclosed programmable fabric die includes a direct fabric die-to-fabric die interconnect interface column disposed in a sector of programmable logic fabric. Each row of the interconnect interface column includes at least one interconnect interface that is electrically coupled to a microbump. The microbump is configured to be electrically coupled to another microbump of another interconnect interface of another fabric die through an interposer. The fabric die may include multiple interconnect interface columns that each extend deep into the sector, enabling low latency connections between the fabric dies and reducing routing congestion. In some embodiments, the fabric die may include interconnect interfaces that are instead distributed throughout logic blocks of the sector.

Abstract: A multichip package may include at least a main die mounted on a substrate. The main die may be coupled to one or more transceiver dies also mounted on the substrate. The main die may include one or more universal interface blocks configured to interface with an on-package memory device or an on-package expansion die, both of which can be mounted on the substrate. The expansion die may include external memory interface (EMIF) components for communicating with off-package memory devices and/or bulk random-access memory (RAM) components for storing large amounts of data for the main die. Smaller input-output blocks such as GPIO (general purpose input-output) or LVDS (low-voltage differential signaling) interfaces may be formed within the core fabric of the main die without causing routing congestion while providing the necessary clock source.

Abstract: Systems or methods of the present disclosure may improve scalability (e.g., component scalability, product variation scalability) of integrated circuit systems by disaggregating periphery intellectual property (IP) circuitry into modular periphery IP tiles that can be installed as modules. Such an integrated circuit system may include a first die that includes programmable fabric circuitry and a second die that that includes a periphery IP tile. The periphery IP tile may be disaggregated from the programmable fabric die and may be communicatively coupled to the first die via a modular interface.

Abstract: A multichip package having a main die coupled to one or more daughter dies is provided. The main die may include embedded universal interface blocks (UIB) each of which can be used to interface with a corresponding daughter die to support high bandwidth parallel or serial communications. Each UIB may include an integrated processor subsystem and associated pattern sequencing logic to perform interface initialization and margining operations. Each UIB may perform simultaneous accesses to a daughter die across one or more channels. Each UIB may also include multiple phase-locked loop circuits for providing different clock signals to different portions of the UIB and a 2× clock phase generation logic. Each UIB may include multiple IO modules, each of which may optionally include its own duty cycle correction circuit. Each IO module may include buffer circuits, each of which may have a de-emphasis control logic for adjusting buffer drive strength.

Abstract: An integrated circuit is operable to communicate with an external component. The integrated circuit may include driver circuits for outputting clock signals and associated control signals to the external component in accordance with a predetermined interface protocol. The clock signals may toggle more frequently than the associated control signals. To help mitigate potential transistor aging effects that could negatively impact timing margins for the control signals, the control signals may be periodically toggled even during idle periods as allowed by the predetermined interface protocol to help improve timing margins.