Abstract: A strobe signal is received in a device and execution of an operation in the device is delayed when the strobe signal includes a preamble. Additional apparatus, systems, and methods are disclosed.

Abstract: A strobe signal is received in a device and execution of an operation in the device is delayed when the strobe signal includes a preamble. Additional apparatus, systems, and methods are disclosed.

Abstract: A strobe signal is received in a device and execution of an operation in the device is delayed when the strobe signal includes a preamble. Additional apparatus, systems, and methods are disclosed.

Abstract: A strobe signal is received in a device and execution of an operation in the device is delayed when the strobe signal includes a preamble. Additional apparatus, systems, and methods are disclosed.

Abstract: A signal generator produces an output clock signal by coupling an input clock signal through a plurality of divider circuits each of which is formed by a toggling flip-flop. The frequency of the output clock signal is adjusted by selecting the flip-flop to which the input clock signal is coupled. Retimer flip-flops may be coupled between adjacent flip-flips to resynchronize the signal being coupled through the flip-flops. Each of the retimer flip-flops receives a respective signal from the output of an upstream flip-flop at its data input, and it receives the input clock signal at its clock input. The flip-flop then applies the signal to a downstream flip-flop in synchronism with the input clock signal. The final two flip-flops through which the input signal is coupled may be preset to various states to set the phase of the output clock signal to one of four phases.

Abstract: Systems and methods for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: A signal generator produces an output clock signal by coupling an input clock signal through a plurality of divider circuits each of which is formed by a toggling flip-flop. The frequency of the output clock signal is adjusted by selecting the flip-flop to which the input clock signal is coupled. Retimer flip-flops may be coupled between adjacent flip-flips to resynchronize the signal being coupled through the flip-flops. Each of the retimer flip-flops receives a respective signal from the output of an upstream flip-flop at its data input, and it receives the input clock signal at its clock input. The flip-flop then applies the signal to a downstream flip-flop in synchronism with the input clock signal. The final two flip-flops through which the input signal is coupled may be preset to various states to set the phase of the output clock signal to one of four phases.

Abstract: Systems and methods for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods, for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods, for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods, for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.

Abstract: Systems and methods for providing distributed configuration storage are presented. The configuration storage is divided into distributed configuration target modules that are physically located in each design section of a device that uses configuration storage. A distributed configuration master module, physically located near the host interface, controls access into and out of each target module via a distributed configuration bus. The creation of each storage array in the distributed configuration storage can be automated using a scripting tool that converts each register specification into hardware description language code.