Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).
Abstract:
An integrated circuit includes a logic circuit block that includes a first adaptive logic module configurable to store a first state of a first signal received from a device-under-test in a first register, a second adaptive logic module configurable to store a second state of a second signal in a second register during a user mode of the integrated circuit simultaneously with the first state of the first signal being stored in the first register, and a third adaptive logic module configurable to store a third state of the first signal in a third register. The first and the third states of the first signal are stored for consecutive clock cycles in the first register and the third register. The logic circuit block is configurable to scan out the second state in the second register and the third state in the third register.
Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).
Abstract:
A method of operating an integrated circuit that includes a plurality of registers may include receiving a sleep mode request for the integrated circuit. The sleep mode request may be a control signal received with control circuitry on the integrated circuit. The plurality of registers may be configured to operate as a scan chain when the sleep mode request is received. Integrated circuit state information that are stored in the plurality of registers may be retrieved by operating the scan chain and stored in a memory module. The integrated circuit may be placed in a sleep mode. Placing the integrated circuit in the sleep mode may reduce power consumption of the integrated circuit.
Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).
Abstract:
Techniques and mechanisms dynamically configure shift registers among registers composing data registers in a circuit such as a Programmable Logic Device (PLD). A configuration bit stream used to configure the PLD may have a reduced size if “phantom bits” not corresponding to configuration elements are removed. Shift registers may be dynamically configured such that registers which do not correspond to physical configuration elements may be skipped. Thus, a PLD may be programmed with a configuration bit stream without phantom bits.
Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).
Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).
Abstract:
Techniques and mechanisms dynamically configure shift registers among registers composing data registers in a circuit such as a Programmable Logic Device (PLD). A configuration bit stream used to configure the PLD may have a reduced size if “phantom bits” not corresponding to configuration elements are removed. Shift registers may be dynamically configured such that registers which do not correspond to physical configuration elements may be skipped. Thus, a PLD may be programmed with a configuration bit stream without phantom bits.
Abstract:
Systems and methods are provided herein for implementing a programmable integrated circuit device that enables high-speed FPGA boot-up through a significant reduction of configuration time. By enabling high-speed FPGA boot-up, the programmable integrated circuit device will be able to accommodate applications that require faster boot-up time than conventional programmable integrated circuit devices are able to accommodate. In order to enable high-speed boot-up, dedicated address registers are implemented for each data line segment of a data line, which in turn significantly reduces configuration random access memory (CRAM) write time (e.g., by a factor of at least two).