Logic Circuits Characterised By Logic Function TRIZ Cases

Staggered activation of storage readout circuits cuts peak current during data reads, reducing overlap that can stress storage elements.

Selective flag-bit insertion breaks long runs of identical bits, improving timing recovery and reducing transmission errors.

A symmetric unary encoder cuts MRAM sense-amplifier trimming area and standby current while preserving gray-to-thermal coding.

A clock multiplier and phase alignment circuit synchronize multiple PHY layers with a faster controller without PHY redesign or added channel complexity.

A voltage feedback amplifier boosts input-switch resistance to limit hold-capacitor leakage, preserving accuracy over long hold intervals.

Mask-based shift amounts remove carry-ripple dependencies, enabling parallel arithmetic and faster reduced-radix multiplication.

Two thermal sensors, an inverter, and a latch delay chip shutdown during rapid temperature swings to keep communication stable.

A delayed scan input path inside a multi-bit flip-flop improves hold time alignment and reduces the need for extra timing-fix circuitry.

Automatic clock generation on interrupt assertion lets the controller stay low power yet deliver every interrupt signal without omission.

A global column repair path bypasses mux delay so ECC can run faster while repairing boundary faults without exceeding sub-word line limits.

Reusing sense amplifier latch data for repeated reads avoids array rereads, cutting reset read disturb, threshold degradation, and power use.

Sparsity bitmaps and local data reuse skip zero-valued parameter sections, reducing memory access and energy while keeping ML compute units busy.

By moving initial setting from NAND-heavy memory cells to the memory controller, this case cuts circuit area and simplifies architecture.

Using three voltage levels in CNTFET-based ternary gates, this case reduces power density and circuit complexity in fine semiconductor processes.

Metastable SR flip-flops turn manufacturing variation into stable random IDs, enabling low-overhead IC authentication without extra security circuitry.

Binary weighted charge-transfer capacitors on a differential bus cut MAC power dissipation while supporting scalable matrix dot products.

Primary and secondary logic cells split full-adder operations to reduce output glitches and improve signal balance and synchronization.

Three-stage gate voltage shaping rounds output signal edges to cut noise radiation while preserving fast circuit switching.

A negative-resistor clock filter boosts Q, suppresses jitter and spurious noise, and enables lower-power clock distribution on noisy ICs.

Staged delay circuits sequence flip-flop clock signals so the transmission gate opens before the gated input changes, improving reliability under voltage variation.

MUTEX cells and feedback loops resolve simultaneous request conflicts, preventing metastable states and preserving fair signal order.

Built-in shift input and output let this SRAM handle concurrent data updates with lower latency and power than row-by-row read-modify-write.

A pipelined systolic GHASH architecture uses parallel multipliers and XOR stages to balance throughput, clock frequency, and FPGA area.

Separate cycle and duty paths improve clock accuracy by compensating amplifier delay and offset in fast oscillator timing.

A decoded-address column multiplexer and asynchronous output latch cut burst-mode SRAM power use while avoiding delayed clock signals.

Independent skewed clock signals for master and slave latches reduce setup time and improve timing margin for stable flip-flop output.

A switched CMOS inverter and delay path generate steep, narrow spike pulses while limiting transition current and power use.

Independent calculator bits enable rapid reconfiguration of ternary logic and MSD addition without carry coupling, improving logic flexibility.

Bit-serial MAC inside SRAM cuts processor-memory data transfer, improving neural network throughput and energy use.

During intermediate-level switching, the clamping branch boosts output drive for faster transitions without adding extra MOS transistors.

Multiple delayed clock phases are combined to correct duty-cycle distortion from asymmetric aging and prevent timing violations.

Switching amplifier bias current between sample and hold modes cuts optical navigation power use while preserving signal amplification.

Per-bit memory bit reordering replaces only defective bits with redundancy, cutting repair area waste and improving processing speed.

Grouped logic gates generate internal, sum, and carry signals with fewer external pins, cutting capacitance, power use, and adder delay.

Depletion-mode transistors simplify OLED OR logic circuits, avoiding costly oxide back plates while supporting mass-producible gate driving.

A delay circuit balances rising and falling lag times to preserve pulse width and duty cycle while keeping the sending circuit compact.

Field-sync timing separates aiming lamp exposure from camera decoding to avoid local overexposure and improve scan head accuracy and stability.

A feedback-controlled bias ramp matches crystal resistance at start-up, avoiding parasitic oscillations and excess power.

A reused delay cell calibrates 25% duty-cycle timing digitally, cutting analog area, mismatch, and phase-noise issues.

Control circuitry verifies credentials, blocks row activation, and changes memory data line outputs to stop unauthorized data access.

Two low-voltage inverter stages and an intermediate voltage generate full-range multiplexer control while cutting driver area and process cost.

Fixed-block compression maps n-bit data to m-bit values with adjustment logic, reducing GPU bandwidth and storage while keeping random access.

A selection circuit disables the second full adder during small-number operations, reducing compressor power use and delay in AI multiplier circuits.

Output-level detection turns off a comparator transistor once nodes reach logic levels, cutting transient supply-to-ground current in fast ADCs.

By combining subtraction and borrow detection in one circuit path, this case cuts internal gates to raise speed and reduce chip area.

Dual XNOR and OR autocorrelation paths lock random-data delay at 0.5 UI without a reference voltage, cutting variation, area, and complexity.

A full-adder cell with configurable switching cuts FPGA area and configuration bits while preserving cryptographic throughput and HDL mapping.

Dynamic switching disconnects the reference bit line during selected read states, cutting sense amplifier power while preserving read speed.

An on-chip inverter-capacitor circuit converts SoC leakage current into a frequency output, enabling faster in-field measurement with good accuracy.

A paired-word-line decoder enables pseudo-triple-port SRAM to support simultaneous read/write access while increasing bitcell density.