Abstract: Embodiments of programmable delay line circuits are disclosed herein. The delay line circuit may comprise a first multiplexer having a first input coupled with an input line; a second multiplexer having a first input, and a second input coupled with an output of the first multiplexer, and an output coupled with a second input of the first multiplexer; a third multiplexer having a first input coupled with the output of the second multiplexer, a second input coupled with the input line, and an output coupled with an output line; a first control gate coupled with the third multiplexer to control the third multiplexer; and a second control gate coupled with the second multiplexer to control the second multiplexer; wherein the first and second control gates selectively control the second and third multiplexer, responsive to a delay value encoded in Gray Code.

Abstract: Embodiments provide crossbar structures, and reconfigurable circuits that contain crossbar structures, that include n inputs and an output, where n is an integer, chains of transistors coupled to the n inputs and the output, a plurality of control signal elements—each coupled to one or more transistors of the plurality of chains of transistors to selectively couple said n inputs to the output—and an additional chain of transistors coupled to at least some of the plurality of control signal elements and the output to selectively couple a constant output voltage to the output. Other embodiments may be disclosed and claimed.

Abstract: Embodiments provide methods, systems, and apparatuses including combinatorial or reconfigurable circuitry having input/output (I/O) circuitry with an I/O terminal and an input buffer. The I/O terminal receives a receive signal at a receive signal level that was transmitted from another integrated circuit at a transmitted signal level which is either a first or a second different signal level. The input buffer compares the receive signal to one or more reference signals to generate an input signal corresponding to the transmitted signal level based at least in part on the result of the comparison, even if the receive signal is received at a third signal level in between the first and the second signal level.

Abstract: Reconfigurable circuits and systems having a recovery module coupled to the reconfigurable circuit and configured to access the configuration memory to retrieve configuration data stored in the configuration memory. The recovery module analyzes the retrieved configuration data to determine whether the configuration data has been corrupted and, if so, restores the configuration data to their uncorrupted state. Methods of operating such reconfigurable circuits and systems are also described.

Abstract: A reconfigurable circuit having primary function blocks with runtime built-in self-test (BIST) circuitry, one or more redundant function blocks and runtime reconfiguration logic is described herein.

Abstract: An integrated circuit (IC) includes a number of function blocks (FB), of which at least one is re-configurable. Each of the FBs may be a reconfigurable function or a non-reconfigurable function or recursively expanded with additional “nested” function blocks. The IC further includes a number of input pins, a number of output pins, an adder, and a number of crossbar devices. The elements, at least at the IC level, are coupled in a manner such that all input signals are provided to the FBs through a first subset of the crossbar devices, all internal signals are routed from one FB to another FB through a second subset of crossbar devices, and all output signals are routed from the FBs to the output pins through a third subset of crossbar devices. To increase routability and speed each of the crossbar device output has a single fanout. Additionally, each of the crossbar devices may provide only one input to each other crossbar device.

Abstract: An integrated circuit (IC) includes a number of function blocks (FB), of which at least one is re-configurable. Each of the FBs may be a reconfigurable function or a non-reconfigurable function or recursively expanded with additional “nested” function blocks. The IC further includes a number of input pins, a number of output pins, an adder, and a number of crossbar devices. The elements, at least at the IC level, are coupled in a manner such that all input signals are provided to the FBs through a first subset of the crossbar devices, all internal signals are routed from one FB to another FB through a second subset of crossbar devices, and all output signals are routed from the FBs to the output pins through a third subset of crossbar devices. To increase routability and speed each of the crossbar device output has a single fanout. Additionally, each of the crossbar devices may provide only one input to each other crossbar device.

Abstract: Memory employing a plurality of five-transistor memory bit cells in a memory matrix and a power supply control circuit that is configured to provide a simultaneous full clear to all of the memory bit cells is described herein.

Abstract: Memory employing a plurality of five-transistor memory bit cells in a memory matrix and a power supply control circuit that is configured to provide a simultaneous full clear to all of the memory bit cells is described herein.

Abstract: An integrated circuit (IC) includes a number of function blocks (FB), of which at least one is re-configurable. Each of the FBs may be a reconfigurable function or a non-reconfigurable function or recursively expanded with additional “nested” function blocks. The IC further includes a number of input pins, a number of output pins, an adder, and a number of crossbar devices. The elements, at least at the IC level, are coupled in a manner such that all input signals are provided to the FBs through a first subset of the crossbar devices, all internal signals are routed from one FB to another FB through a second subset of crossbar devices, and all output signals are routed from the FBs to the output pins through a third subset of crossbar devices. To increase routability and speed each of the crossbar device output has a single fanout. Additionally, each of the crossbar devices may provide only one input to each other crossbar device.

Abstract: A reconfigurable circuit having primary function blocks with runtime built-in self-test (BIST) circuitry, one or more redundant function blocks and runtime reconfiguration logic is described herein.

Abstract: An integrated circuit (IC) includes a number of function blocks (FB), of which at least one is re-configurable. Each of the FBs may be a reconfigurable function or a non-reconfigurable function or recursively expanded with additional “nested” function blocks. The IC further includes a number of input pins, a number of output pins, an adder, and a number of crossbar devices. The elements, at least at the IC level, are coupled in a manner such that all input signals are provided to the FBs through a first subset of the crossbar devices, all internal signals are routed from one FB to another FB through a second subset of crossbar devices, and all output signals are routed from the FBs to the output pins through a third subset of crossbar devices. To increase routability and speed each of the crossbar device output has a single fanout. Additionally, each of the crossbar devices may provide only one input to each other crossbar device.