Precharge and scan-enable circuitry shorten dynamic register setup time while adding scan capability without pulsed clock overhead.
Removed phantom bits shrink PLD configuration data, while padding bits preserve register alignment and avoid decompression delays.
A precharge circuit and small transparent latch cut setup time in dynamic registers without pulsed clock overhead, while preserving scan mode.
Dynamic logic modules let an ASIC reconfigure functions and interconnections during operation, avoiding rebuilds while preserving speed and area efficiency.
A four-channel PMA and shared PLL layout supports multiple serial standards while improving area efficiency and reducing PLD die cost.
Selectable pull-up and pull-down pre-drivers vary output strength across voltages and memory chip counts to keep data slew rates consistent.
A separate configurable IC debug network detects selected events, counts occurrences, and captures filtered data without burdening the main routing fabric.
A four-channel HSSI module shares programmable PLL resources to support multiple serial standards while saving PLD die area and cost.
Interface adapters and CAD stitching combine multiple FPGAs into one structured ASIC while preserving one-to-one behavior and lowering latency.
A fixed PLD interface preserves signal visibility during partial reconfiguration, enabling in-system debugging without severed connections.
Key-controlled multiplexers descramble FPGA configuration bitstreams to protect them with lower circuit area and power than encryption hardware.
Configurable interconnects route signals between hard and soft logic so hard blocks can be bypassed or extended without losing speed or flexibility.
A separate configurable debug network monitors selected IC events and stores filtered trace data, cutting wasted resources and manual parsing.
Direct time-domain feedback uses delay lines, comparators, and phase detection to hold driver slew rate within tight timing limits.
Digitally switching between current and voltage output, this driver circuit uses current mirrors to scale output accurately without shunt sensing losses.
Configurable I/O buffers set direction, logic thresholds, drive strength, and resistors while limiting power and die area growth.
Memory cells in voltage level shifters preserve IC output states during low-power idle mode, cutting power use without losing logic levels.
Repurposing a PLD configuration port moves low-bandwidth communication data through I/O blocks, freeing logic and interconnect resources.
Voltage and clock detection select delay parameters to preserve signal margin and prevent memory malfunctions under direct external power.
A control circuit sets programmable I/O gate voltage levels so one PCB can interface with logic chips across changing I/O standards.
A shared level translator lets mode-dependent control signals drive a buffer across voltage domains while cutting translator count and chip area.
Integrating CMOS buffers with hybrid hall effect devices resolves fanout limitations in nonvolatile logic circuits.
A configurable diode package merges input resistor and pull up or pull down mode selection into a single circuit location.
Circular buffers manage sleep states in data flow processors to conserve power.
A bias voltage generator adjusts potential difference to buffer external clock signals for semiconductor integrated circuits.
Segmented mixed signal interface blocks eliminate resource sharing conflicts, enabling independent operation of diverse signal functions.
Programmable logic in a flexible interface block supports diverse protocols while reducing interfacing complexity between multiple semiconductor dies.
Segmented current sources in a differential pin driver enable multi-level signaling to overcome the two-level limitation of conventional designs.
Dynamic signal routing via programmable arrays bypasses failed dies in 3D stacks, improving yield and reliability.