Logic Circuits Characterised By Logic Function TRIZ Cases

A PLL-based leader-follower clock scheme aligns ADC sampling phases across radar modules, improving resolution without delay lines.

Bypassing the scan multiplexer from the critical data path preserves scan testability while reducing flip-flop delay and area overhead.

Matching data patterns sent over separate interface lines enable low-latency memory connection checks without risking data loss in deployed systems.

A dual-path feedback clock circuit uses flip-flop recovery to prevent pulse collapse and clock switch-off under PVT variation.

Magnetically coupled nanomagnetic triangles combine logic and persistent storage to cut power use, latency, and data transfer complexity.

A two-stage receiver matches common-mode voltage to the buffer trip point to cut pulse width distortion at gigabit data rates.

Symmetrical injection and frequency calibration correct ILRO static skew, improving locking range and jitter across PVT variations.

Comparator-based control logic minimizes pull-up and pull-down overlap in bit line pre-charge circuits, reducing memory current consumption.

Charge-pumped n-type switching lets one PA module select dual supply voltages, cutting PMIC count, size, cost, and overcurrent risk.

Fractional intermediate voltages split level shifting into smaller steps, limiting core transistor stress and improving circuit reliability.

By disabling CIM bit cells for sparse inputs and compensating outputs, this case cuts power and processing time for edge AI.

A latched hot plug control signal keeps the power switch disconnected after a fault, preventing main board damage until manual reset.

By removing self-feedback paths and collapsing strongly coupled flip-flops, this case enables stable synchronous-to-asynchronous circuit conversion.

Switchable glue logic enables ATPG testing of latch-based FIFO data paths and stuck-at-1 faults without losing the area savings of latches.

Precharging the ADC sampling capacitor near the input voltage cuts input current, power use, and area at high sampling rates.

A two-stage common-source ring clock buffer regenerates 25% duty cycle across four phases while resisting process, voltage, and temperature variation.

A divided quad clock cuts inter-die clock frequency to improve signal integrity, timing margins, and power use in taller 3D memory stacks.

By summing adjacent PWM pulse widths, this case avoids double switching in Class D audio output, reducing EMI, distortion, and loss.

A shared latch circuit switches between normal and compressed write modes to carry primary and secondary data without extra paths or delay.

Dynamic pattern sensing enables XTC circuits only during harmful bus switching, cutting power use while improving signal quality.

Stored known signals and tri-state isolation prevent floating outputs and DC leakage when one power domain loses power.

An inversion-flag control circuit lets DRAM decode power-down exit signals correctly even when command/address inversion is used to save power.

Skipping data-line precharge in DRAM mask write mode cuts current waste and speeds data write without affecting normal writes.

Adjacent PWM circuits use delayed clocks and shared NOR logic to keep pulse widths constant despite duty variation and avoid overlap.

Dual read circuits with feedback reshape bit-voltage distribution, making close memory levels easier to distinguish and read accurately.

A no-match override blocks unused redundant repairs when default addresses are disturbed, preserving accurate memory access and reliability.

Filters zero words before output so memory transfers use less power and bandwidth while reducing latency from sense amplifiers.

Biasing or capacitive compensation keeps the intermediate node in stacked transistor circuits from floating and reduces stress-driven degradation.

Adaptive pulse-width control uses tracking bit and word lines to improve sensing amplifier read timing across memory module configurations.

A delayed-input pulse generator and latch enable fast level shifting while keeping static quiescent current in the micro-amp range.

A stored known signal and tri-state isolation block floating outputs from a lost power domain, preventing DC leakage and unstable operation.

Using 3T DRAM cells to invert stored data directly avoids extra latches, cuts power use, and reduces read-to-read delay.

A level-shifted header circuit switches voltage domains between normal, sleep, and shut-down states to cut IC power use with more flexible control.

Selective row address routing by bank group cuts transmission paths, lowering memory power use while preserving access speed.

Separate fin dimensions and well spacing let logic and SRAM FinFETs balance speed, cell scaling, leakage, and latch-up.

An always-on watchdog timer works with POR logic to trigger periodic resets during unstable input voltage, avoiding dead-zone failures and external reset circuits.

A zero-detection latch holds the prior non-zero input so multipliers skip zero values, cutting power without breaking data flow.

An oscillation ring measures sequential-circuit read time from waveform period changes, reducing simulation error in complex hardware.

A bootstrap and charge-pump output driver balances gate oxide reliability, leakage prevention, and compact multi-protocol I/O design.

Mechanically gated conductive regions let soft materials scale from robust logic gates to integrated circuits for low-power computing.

When in-phase noise distorts capacitor-coupled differential lines, sink-current boosting preserves signal amplitude without a noise filter.

A non-terminated bit line and sensing block make FPGA configuration latches readable, resettable, and area-efficient across foundry processes.

Pulse masking based on warming-up cycle information sharpens memory data output timing and supports reliable operation at low voltage and high speed.

Programmable BEOL routing lets a logic cell switch between buffer and inverter functions to fix inversion errors without remanufacturing.

Threshold-based data inversion cuts memory-path power use while check codes help maintain transmission accuracy in dense storage arrays.

A Zener-diode base path replaces large resistors to keep normally-on PNP switching stable across temperature while saving IC area.

Mixing multi-phase clock signals with jitter cancellation and delay adjustment reduces skew without adding the jitter seen in DLL alignment.

Sequential NOT gate stages pre-adjust signal voltage to curb inter-symbol interference and support higher data transmission rates.

Tunable delay components store wavefront timing directly, enabling race-logic memory read/write with lower energy use and practical implementation.

A doubly balanced auto-zero circuit rejects DC offset and uses pattern filtering to improve LFPS and squelch detection reliability.

Independent-gate depletion-mode transistors shrink DRAM wordline drivers while preserving high-voltage cell access and lowering power.

Parallel logic and disparity control cut cumulative gate delays in 5B/6B coding while preserving DC-balanced six-bit signals.

Asymmetric Muller C-elements gate dual-edge clocks without missing or unwanted transitions, cutting clock generator complexity and cost.

A standby-driven polarization circuit forces logic inputs into a low-leakage state, cutting IC static power without added delay or area.

Reoriented gate electrodes create intersecting electric fields, cutting gate voltage needed for tunnel transistor switching in logic and SRAM.

By disabling keeper circuits during discharge, this level shifter cuts contention, lowers power use, and extends low-Vdd operation.

A five-transistor inverter with capacitive switching cuts power use and stabilizes pixel voltage to reduce OLED luminance variation.

Series switches and current sources let one buffer support LVDS, HCSL, LVCMOS, and CML while cutting chip area and power.

Spin-coherent channels let nanomagnets switch by spin current instead of external magnetic fields, cutting energy loss and easing logic scaling.

A CPLD-based priority logic module enables controlled reprogramming and test-mode mapping while reducing nuclear certification time and cost.

Using a non-binary clock duty cycle, this decoder cuts logic inputs per stage to reduce circuit complexity and sequential line failures.