Single Output Arrangements TRIZ Cases

Programmable edge delay lets an eUSB repeater meet USB crossover specs at 1.5 Mbps and 12 Mbps across varying loads.

A controllable-delay feedback filter cancels post-cursor ISI without clock-edge dependence, preserving DFE performance during RX eye scan.

A capacitor ramp and current-source topology replaces memory elements to keep delay timing stable under supply noise and temperature shifts.

A variable capacitor at the transistor source tunes transconductance for femto-second propagation delay control with high linearity.

A shared-current buffer and multiple phase divider cut clock power and jitter in large arrays while preserving dynamic range per milliwatt.

Relative phase ranking guides which clock pair to adjust, helping multi-phase clocks maintain uniform edge spacing for synchronization.

Series-connected short and long delay elements extend delay range and preserve precise timing adjustment at high operating frequencies.

Programmable loop recirculation and phase interpolation correct SYNC and SYSCLK skew from PCB trace and buffer differences.

A staged delay line measures per-stage delay to generate accurate narrow pulses with lower power and less circuit area than fast-clock designs.

A proportional voltage-to-current stage charges a capacitor to keep delay time stable across input levels while cutting area and power.

Multiple delay stages with opposing voltage and temperature dependencies keep CMOS timing substantially stable across operating conditions.

Internal timing is calibrated against delayed external capture clocks to keep processor-memory data transfer accurate without replica circuits.

Current-driven capacitor ramps replace noise-sensitive memory elements, stabilizing delay time against parasitic inductance, supply variation, and temperature.

Delay mesh circuitry creates time-shifted waveforms for multiple transducers, cutting waveform generator count for compact single-chip ultrasound.

A constant-current MOS delay circuit extends delay time without larger capacitors, reducing circuit size and complexity.

High-resolution TDC timing measurement enables adaptive clock duty-cycle correction to offset aging-induced distortion and timing violations.

Bias current control through cascode transistors enables continuous delay tuning, smaller circuit area, and better output slew rates.

A triple-inductor and resistance-switch network delivers 2.8° and 5.6° phase steps with low insertion loss for 5G beamforming.

Variable slope control in SSC modulation reduces clock recovery frequency fluctuation and supports correct USB4 link training.

A temperature-dependent delay circuit extends DRAM wordline off timing at low temperatures to protect write recovery and sequence reliability.

Signals are modulated onto the DC power line and recovered through DC isolation, removing separate signal wiring and simplifying smart home circuits.

Variable capacitance and switching in a gate delay circuit counter BTI drift to keep signal timing predictable over circuit life.

Switchable delay segments tune signal paths across voltage levels to prevent hold violations and improve clock-frequency scaling.

Alternating passive RC stages with active buffers cuts clock power use while preserving phase accuracy in multiphase signal generation.

A metastability-tolerant latch circuit uses run-clock sampling and XOR change detection to cut TDC flip-flop count, chip area, and power.

Dynamic clock delays adapt to process corners, operating states, and temperature to close timing paths, improve yield, and cut path failures.

Edge-triggered D flip-flops isolate tDQSS delay variation, helping DDR SDRAM write operations generate stable internal latch signals.

Vernier delay lines and calibration paths compensate for manufacturing variations to measure transient pulse duration more accurately.

Shared latches, delay logic, and pulse timing recover clock and data on multi-wire links while reducing skew, pins, and PLL complexity.

A staged delay line measures per-stage delay to generate accurate narrow pulses without high-speed clocks, cutting power and circuit area.

A correction circuit with a switch capacitor array balances rise and fall times in multi-stage DCDLs to restore output duty cycle accuracy.

A four-state gate and inverter chain widens delay adjustment without added input load while preventing glitches and duty cycle loss.

DAC-based calibration aligns programmed and actual delay values, improving linearity, resolution, and drift tolerance across channels.

Programmable clock delays adapt skew to operating state, process corner, and temperature to close difficult timing paths with less redesign.

Electromagnetically coupled oscillators encode environmental changes as distinct amplitude and frequency patterns for precise, instant sensing.

A delay mesh on a single ultrasound substrate creates time-shifted drive signals, cutting waveform generator count, space, and power.

Segmented delay paths switch by operating voltage to prevent hold violations and avoid over- or under-design in ultra-low-voltage circuits.

Selective coupling of matched delay-line chains estimates manufacturing-induced delays and improves pulse duration measurement accuracy.

Resistor-based TIA and limiting amplifier stages widen optical receiver bandwidth while avoiding the chip area penalty of inductive peaking.

A replica minimum-delay path detects and corrects pulsed latch timing errors by tuning clock voltage and pulse width to avoid failures.

A calibration module adjusts active delay stages to match process parameters, improving timing flexibility while limiting power use.

Adaptive delay and clock-drive control compensates PVT variation to keep internal clock timing aligned while reducing current consumption.

DAC-controlled calibration with phase comparison corrects delay nonlinearity from process spread and aging for precise programmable timing.

A compensating transistor bypasses switch leakage around a capacitor to limit voltage droop and reduce ADC clock skew.

Periodic low-frequency toggling of unselected delay elements reduces asymmetric aging and keeps delay-line output timing consistent.

A metastable detect circuit recirculates sampling only when needed, avoiding brute-force synchronizer delay, power draw, and unstable outputs.

Dynamic delay control adjusts clock skew and data timing to maintain memory hold margins across voltage and temperature variation.

A metal delay line with weighted adjacent tap switching delivers fine clock delay control while avoiding buffer power, noise, and PVT drift.

A delay-controlled pulse circuit stabilizes switch outputs by suppressing jitter and bounce while producing fast short pulses.

Voltage-selectable delay segments tune signal paths across operating ranges to avoid hold violations and over-design in ultra-low-voltage circuits.