Delay Lines Pulse Generation TRIZ Cases

An active fiber loop with delay lines and optical switching forms stable GHz laser pulse bursts while preserving pulse timing, amplitude, and duration.

Staggered enable signals sequence multiple power supply circuits to avoid current spikes and keep supply voltage stable during initialization.

Phase shifting, delay, and optical combining multiply a seed clock into ultrafast photonic timing for higher processor speeds.

A battery buffer and solid-state switch replace heavy DC-DC conversion to control voltage and current while cutting heat and weight.

Float-resistant inverters and edge dummy transistors extend hold-time while limiting layout-dependent effects in dense flip-flop layouts.

Staggered pixel modulation with a delay-locked line cuts TOF sensor peak current while keeping timing predictable for accurate depth sensing.

Boundary dummy groups protect daisy-chained delay cells from layout-dependent effects while cutting footprint and layout complexity.

Staggered pixel modulation with a voltage-controlled delay line cuts iTOF peak current strain and stabilizes depth measurements.

A frequency-division and latching DLL generates four-phase DRAM clocks with one adjustable delay line, cutting area, cost, and power.

Delayed sampling and count-based cutoff detect abnormal gate signals early, protecting display panels from overcurrent damage.

A half-cycle delay, OR extension, and phase-switched latch path correct odd-divided clocks while easing timing limits at higher reference frequencies.

Multiple offset slicer samples and precursor compensation help the receiver cancel ISI and improve clock data recovery.

Hierarchical coarse and fine delay paths correct DDR clock duty-cycle errors while preserving timing precision under voltage and temperature variation.

Lower-frequency duty-cycle testing guides delay adjustment to generate equidistant four-phase memory clocks with stable, faster data access.

Multiple offset samples and separate precursor and post-cursor compensation help a receiver cancel ISI and recover clock timing without transmitter channel data.

Variable delay selection lets cross-coupled ring oscillators tune phase coupling, helping Ising machines solve diverse optimization inputs faster.

Multiple-offset sampling and precursor/post-cursor compensation help a high-speed receiver cancel ISI and adapt to channel changes.

A three-state latch cuts transistor count in a dynamic D flip-flop, reducing chip area, power use, and logic delay.

Tapped inverter stages and combinational logic create non-overlapping multi-phase clocks while reducing current spikes and PVT sensitivity.

Tests multiple clock-based write intervals, then selects the most stable timing window to improve memory card write accuracy and reliability.

Dynamic delay control aligns data bits with clock edges to correct skew in high-speed semiconductor links and improve transmission stability.

Feedback-controlled clock delay, voltage, and frequency tuning helps semiconductor circuits balance PVT-stable speed with lower power use.

Divided and delayed clock paths generate precise non-overlapping edges that prevent sampling mismatch in time-interleaved ADCs.

Segmented local oscillators synchronize via magnetic coupling, eliminating voltage drops and power dissipation from traditional clock trees.