Logic Circuits Using Elementary Logic Circuit Components TRIZ Cases

Buffered programmable interconnects enable asynchronous wave-pipelined data transfer, cutting clock loading, area overhead, and power.

Selectable high- and low-voltage drivers let one IC I/O support multiple interface voltages and frequencies without damage or added area.

Multiple LUTs, partitioned registers, and dedicated carry chains improve logic packing and cut propagation delay in CLB-based PLDs.

Concurrent configuration updates let constant-folded circuits keep running while cutting storage cost and reconfiguration downtime.

A delayed-clock pre-charge driver in PLD routing improves edge timing by optimizing falling delays without sacrificing programmability.

Adaptive thresholding uses mean signal values and hop-synced control to suppress interference pulses without distorting audio.

Boundary scan cells form a separate I/O configuration path in a PLD, bypassing core shift registers to cut phantom bits and routing congestion.

Compressed configuration images stored in on-chip ROM replace external flash, cutting cost and power while protecting factory settings.

Different-input LUTs and integrated carry logic raise CLB packing density while cutting propagation delay in programmable logic blocks.

Mirrored interconnect columns shorten FPGA critical signal paths, reducing wiring delay while preserving flexible logic implementation.

Independent LUT input sets and register feedback raise CLB logic packing efficiency while improving carry-chain timing in PLDs.

Selection units let flip-flop groups ignore shared reset signals, improving configurable IC flexibility without extra circuit overhead.

Inverted parity bits in odd-column NVL arrays detect retained-state errors and trigger boot recovery after zero-leakage sleep.

Hardwired enable decoding lets ganged FPGA RAM blocks activate only the selected block, cutting read-path delay and dynamic power.

A PLD I/O interface shifts dummy data only until memory data is ready, reducing fixed SPI read padding and unnecessary transfer.

Column-level MUX interconnects let MAC groups run different algorithms with high configurability while holding IC area and power in check.

Variable SRAM data and flag fields enable flexible logic reconfiguration while reducing chip area and improving tamper resistance.

A one-time disabling element permanently blocks FPGA configuration or internal data readout while preserving selective debug access.

Configuration memory values are reused as decryption keys to secure programmable logic updates against bitstream interception and key exposure.

A single IC node encodes multiple configuration bits from voltage level and threshold timing, cutting pin count and silicon area during reset.

Dedicated local hardware lets LUTs act as registers without general interconnect, cutting delay and supporting faster pipelining.

A PLD loaded through JTAG becomes a serial bridge that programs non-JTAG memory faster than EXTEST, reducing bandwidth and setup complexity.

Multi-stage lookup tables implement greater-than and less-than functions in programmable logic while conserving configurable logic resources.

Mode select circuitry propagates an initial carry to hold unused FPGA carry stages in a non-switching state and cut idle power.

A configurable arithmetic block uses registers and multiplexers to support arbitrary DSP word sizes while reducing interconnect complexity and power.

Two control bits let a PLD block corrupted configuration data after pre-programming power loss and control loading at power-up.

A DSP block reuses its accumulation adder for rounding by selecting a rounding constant, cutting extra circuitry while supporting multiple modes.

An inverting multiplexer inside the FPGA flip-flop breaks long pass-transistor chains, reducing RC delay and gain stages.

Dynamic pin sharing lets multiple on-chip debug units use one data pin, improving test access and visibility in dense SoC designs.

Direct offset tile connections, multilayer wire segments, and buffers improve configurable IC reachability while cutting redundant interconnect paths.

Configurable routing moves user data into storage registers before PLD reprogramming, preserving volatile data until the new configuration runs.

Dynamic pin sharing and selection logic improve on-chip debug access in dense ICs where physical test visibility is limited.

Edge-monitored delay cells adjust I/O timing in real time to counter voltage and temperature drift, reducing data loss and duty cycle distortion.

Differential signaling, clock recovery, and error detection speed PLD configuration while avoiding the pin overhead of parallel loading.

Four 2-LUTs and a mode control circuit let one logic element act as a 4-LUT or two 3-LUTs, cutting LUT hardware overhead.

A LUT multiplexer tree reuses internal signals for sum and carry generation, cutting FPGA adder delay and extra circuitry.

Shared time-multiplexed FPGA routing lets multiple signals use one wire, cutting interconnect area while preserving timing predictability.

Programmable selector circuits let PLDs map next-state and output functions more efficiently, improving flexibility without adding costly resources.

Samples bits at both bus terminals to switch SD/MMC signal direction without external control lines or transaction decoding.

Control logic checks validation and stop bits before FPGA configuration loading to block corrupted data after power failures.

Selective clock-path delay adjustment corrects PLD hold time violations while limiting setup-time impact in congested timing paths.

Boundary scan cells hold FPGA I/O pins in known states during reconfiguration, preventing glitches and keeping critical functions running.

Partial bitstreams reroute PLD hardware block I/O to state access logic, enabling internal register read and initialization without extra data-path registers.

A shared-wire time-multiplexed FPGA interconnect reduces routing silicon overhead while preserving timing predictability and flexibility.

Switch logic lets a programmable multiplexer emulate more input signals with fewer ports, cutting silicon area in programmable logic.

Non-volatile backup lets a PLD reconfigure in the field without losing volatile memory data or disabling I/O pins.