Exclusive-OR Circuits TRIZ Cases

A two-flip-flop memory cell uses logic-gated readout to output stored data once and erase it on reading for secure one-time storage.

Dual-port AND cells and 3-port SRAM XOR cells enable single-cycle full adder and faster in-memory Boolean operations with lower power.

Parallel adder arrays and feedback paths remove sequential bottlenecks in a second-order ΔΣ modulator, enabling higher clock frequency.

Phase-offset pulse comparison detects clock propagation faults without duplicate monitoring clocks, reducing variation-sensitive complexity.

Hierarchical super-core and cluster compaction cuts ATPG effort, memory use, and test time in many-core processor scan testing.

Using XNOR, OAI, and pass-gate logic, this full adder cuts transistor count to reduce chip area, power draw, and timing delay.

Semi-stochastic neurons and invertible logic gates solve factorization and SAT faster without qubit limits or long sampling times.

Serial wordline sensing inside the NVM die finds matching data pages without reading full LBA ranges, reducing host load, power use, and die wear.

Permutation-based PAM-Q signaling sends N bits over M wires to balance chip-link speed with lower power, smaller footprint, and fewer I/O pins.

XOR-based transition detection and alignment logic cut bus transitions, current consumption, and noise in high-speed data transmission.

A voltage-multiplexed intermediate domain lets a level shifter transfer signals without a valid input domain and with zero quiescent current.

Compact hash and truncated-value arrays speed column searches and row ID lookup while avoiding the memory overhead of traditional indices.

Buffered carryover data and scale-down division reduce stochastic selection errors in multi-addend bitstream addition.

Tailored discounts are pre-calculated from patient-specific data and applied at prescription fill time to improve adherence with less processing.

Digital shift registers and a multiplexer replace PLLs and delay lines to deliver programmable clock phase control with lower area and power.

Adjustable inverter delays align data with the clock and restore polarity when needed, improving high-speed memory signal identification.

A low-bandwidth PLL paired with fast phase change detection enables high-speed demodulation while reducing receiver complexity and power.

XORing candidate and target pages, then compressing low-entropy reference pages, cuts storage use while limiting metadata and CPU overhead.

Multiple page-buffer latches separate data states during programming and reading, improving NAND storage density without sacrificing reliability.

Rapid multi-row DRAM activation enables bit-line charge sharing for in-memory computation, cutting data movement energy and memory-wall delays.

Segmented pull-up and pull-down current banks with comparator feedback cut static current use and tame OLED column settling spikes.

Multiple partial phase comparators and weighted interpolation cut capacitance-driven jitter and widen PLL lock bandwidth for clock recovery.

Capacitive coupling between slower ring oscillators amplifies jitter, improving TRNG bit randomness with lower power and small area.

By comparing driver input with terminal feedback, the circuit detects shorts, opens, and load impedance faults during normal operation.

Precomputed mask LUTs and XOR logic let one GF multiplier support varying symbol widths and polynomials with lower circuit and memory complexity.

Correcting data and updating parity in the same read period prevents DRAM error accumulation and improves data reliability.

Offset-code comparison detects parameter, duty-cycle, and impedance errors using existing circuit blocks, cutting separate monitoring hardware.

Keeps masked data protected through ALU, register, and masking-circuit operations without unmasking, improving secure processing reliability.

Continuous signal correlation with toggle generation detects latent faults during runtime without suspending normal operation.

A phase interpolator and eye-measurement clock improve receiver phase alignment and data detection under noise in high-speed links.

A 3-port complementary XOR SRAM cell adds XOR/XNOR logic in memory and completes full adder operations in a single clock cycle.

Buffered data and XOR parity let mixed NAND page groups recover read-failed data without waiting for program-in-progress pages to finish.

Independent clock phase and voltage offset calibration in a data recovery circuit cuts extra circuitry, power use, and stability issues.

Latch sampling and XOR comparison force divided clock polarity to follow a reference clock, preserving phase correlation in multi-divider paths.

XOR averaging, training sequences, and eye sweeps reduce clock-data skew in high-speed serial links, improving timing margin and data integrity.

Address conversion redistributes stacked memory die access to limit hot spots and protect data retention without slowing data I/O.

Parallel synchronizer paths and a detection stage flag clock-domain faults immediately, improving SoC reliability without adding main-path latency.

An autocorrelator tunes a VCDL to 0.5 UI in clockless DFE, reducing ISI and preserving signal integrity across data rates.

Two quantum phase-slip junctions and a load capacitor enable adiabatic switching near thermal energy levels for faster, lower-energy reversible logic.

Dual-port SRAM cells with complementary XOR and split bit lines enable single-cycle full adder and Boolean logic with lower power.

Path delay measurements in FPGA logic macros generate unique, stable bitstrings while reducing bias and resistance to probing and model attacks.

An XOR-based clock gating circuit toggles the flip-flop clock only when input data changes, cutting power use without added area or setup delay.

A four-memristor bridge performs XOR, AND, OR, and XNOR in one cycle, cutting control logic, power use, and chip area for CMOS-compatible logic.

Gray code limits duty cycle counter updates to single-bit changes, reducing timing errors in high-speed clock correction circuits.

Scaling networks on thermometer-coded unary data cut digital logic complexity while reducing area, delay, and approximation errors.

XOR-linked main and auxiliary SRAM2P arrays deliver 2R1W memory with less area and simpler control logic for simultaneous reads and writes.

A single configurable PRN generator replaces separate GNSS code blocks, producing civil codes for GPS, GLONASS, BeiDou, and Galileo.

A DRAM sensing circuit performs logic directly from two memory-cell reads, cutting latch overhead, data movement, processing time, and power.

By comparing input and output transition counts, this case detects delay-induced glitches in circuits under test and supports timing revision.

A low-bandwidth PLL plus a fast phase change detector extracts high-rate data while avoiding the complexity and power of high-bandwidth loops.