Generating/Distributing Signals TRIZ Cases

Resonator spines and standing-wave ribs suppress fabrication-driven amplitude and frequency deviations for more uniform clock distribution.

Counter-time mapping lets a vehicle node act at a pre-defined time without a local clock, preserving simplicity and computational efficiency.

When a vehicle loses access to its master clock, relative drift values let devices correct timestamps and keep autonomous operation running.

Varying resonator rib thickness evens inductive clock coupling across transformer lines, improving timing consistency in distributed circuits.

An autonomous controller lets a programmable analog subsystem reconfigure on trigger events while the CPU stays asleep to cut power use and delay.

A low-voltage MOS capacitor and analog switch shrink regulator circuit area while cutting noise and preserving phase margin.

Shared conversion data and clock-based counter synchronization improve factory automation time accuracy while preserving stable control operation.

Using a control-clock-synchronized time counter, this case improves timestamp accuracy and avoids slow calendar IC read cycles.

IRIG-B timing in an event input module removes delay elements and improves accurate synchronization across multiple PLC systems.

Health-state-based archive syncing keeps the best server data after master/master faults, preserving history and reducing duplicate storage.

A registration authority authenticates signed sync requests so plant components can align time securely without separate NTP key management.

Distributed slave I/O units near machine devices cut noise and wiring, while IEEE 1588 time slots keep data transmission synchronized.

Coordinated trigger timing aligns lidar, radar, camera, and ultrasonic sensors to cut frame drops and improve autonomous driving perception.

Pulse and trigger delay adjustment synchronizes vehicle sensors, improving capture timing accuracy and reducing host control burden.

An integrated SoC multiplexer routes PCIe clock signals across multiple host configurations without board changes, cutting space and complexity.

A feedback-controlled prescaler corrects clock drift from temperature and voltage changes to keep system timer counts accurate without timer jumps.

Switchable high-impedance and pass-state elements link repeated circuit regions into one clock tree, cutting delay in large imaging elements.

Separate local clock trees and edge-based timing let processors and peripherals exchange data without a global clock tree, cutting power use.

Replica ring oscillators add programmable delay correction to a synthesizable clock doubler, reducing cycle variation and duty cycle errors.

Synchronizer circuitry derives and regenerates clock triggers across domains to limit jitter and unwanted pulses during frequency switching.

A victim IC updates notch-filter cancellation parameters from shared aggressor frequency changes to suppress shifting spurs and protect signal quality.

Hardware clock gating enables immediate frequency scaling from one PLL, cutting power use without the slow response of software control.

Programmable delays from replica ring oscillators correct doubled-clock cycle variation and duty cycle in a low-power synthesizable circuit.

A programmable delay line and digital PLL let an FPGA clock stay low-jitter while software tunes phase and frequency to match external timing.

Differential RCK strobes and auto-burst detection keep read-path clocks stable across burst transitions, reducing jitter and BER.

A configurable delay path tracks timing margin so clock frequency drops during voltage droop, while voltage control restores target speed with less power.

Tunable RC inverter stages generate stable quadrature SERDES clocks, cutting power use and phase drift from supply noise.

By moving the asynchronous queue into the slave voltage domain, only data and clock cross domains, cutting level conversion, area, and power.

Parallel delay units and controlled swapping keep clocktrees and non-continuous strobes phase-aligned without glitches or edge-triggered update delays.

Hardware clock gating adjusts frequency immediately from performance indicators, cutting clock power without slow software response.

Multiple low-voltage analog carriers split and recombine bus data to raise data rate while preserving low power use and noise immunity.

Sets a programmable delay between periodic signals with unknown phase, enabling asynchronous subsystems to sync without a common clock.

A feedback loop compares system timer and RTC counts, then adjusts the prescaler to correct drift from voltage and temperature changes.

Oblique and shielded clock metal patterns shorten IC clock paths, cutting latency and power while reducing signal interference.

Preplanned aggressor frequency updates let a victim IC retune spur cancellation parameters and maintain signal quality despite clock drift.

Peripheral units request clock pulses only when needed, cutting global clock tree power while preserving processor-peripheral data exchange.

Re-timed enable gating and delay calibration synchronize multi-channel ADC and DAC clocks to prevent out-of-order outputs and reduce noise.

Sample-hold, interpretation, word formatting, and packet generation help LVDC bus links keep power low while improving noise immunity and data rate.

Bias-controlled current delay compensation stabilizes CML-to-CMOS clock transfer under power fluctuation, reducing jitter without a large DLL.

Dynamic clock divider switching uses frequency indication signals to cut SoC power while keeping clock timing stable during frequency changes.

Mode-based frequency shifting and spread spectrum control reduce clock overlap with wireless bands in touch and display driver ICs.

Slanted clock metal and shielding patterns shorten IC clock paths to reduce latency, power use, and signal interference.

Clock lines moved to the chip backside and shielded by power rails reduce data interference while simplifying IC routing.

A dual-clock switch uses an external high-frequency source during reset, then returns to the RTC path to cut boot delay without extra IO pins.

A feedback-locked spread-spectrum clock uses controlled phase delays to keep phase drift bounded and preserve data alignment during transmission.

A DLL measures delay-path timing to limit internal clock generation windows, cutting memory power use without sacrificing data reliability.

Multiple latches enable 50% clock stretching during power droop, improving CPU performance without DLL power or area overhead.

A frequency doubler, divider, and delay line control loop calibrate 4-phase clock skew to protect ADC accuracy at high data rates.

A seamless retimer avoids domain-crossing latency by switching between aligned clock sources without disturbing clock period or duty cycle.

Pulse width scaled to the active divider ratio keeps clock divider updates synchronized across sub-systems without missed sync pulses.

Power-noise sensing and input-level adjustment stabilize clock phase under PVT variation, reducing jitter and preserving setup and hold margins.

A timed switch-off, select, and switch-on sequence suppresses clock glitches while reducing power use and chip area in digital circuits.

A frequency-doubled and divided feedback loop tunes delay lines to correct 4-phase clock skew and improve ADC timing accuracy.

An internal timer detects external clock frequency at startup, enabling automatic clock setup with fewer timing errors and shorter boot time.

Power-voltage noise is detected and used to adjust input clock levels, reducing PVT-driven jitter and preserving clock-data synchronization.

An adaptive clock generator detects RF-induced jitter and duty-cycle shifts, enabling mitigation only when needed to cut power overhead.

A dynamic edge-path swap recalibrates receiver sampling alignment without interrupting the data stream, preserving continuous processing.

Kernel information and KNN classification identify running app types more accurately, enabling correct processing frequency adjustments.

Forwarding an un-normalized mantissa lets dependent floating-point adds run in a two-stage pipeline without normalization stalls.

Direct binary timer-count sampling uses an LSB state change to avoid Gray-code conversion overhead across SoC processors.

Isolation transistors separate test probes from critical nodes, reducing stray capacitance and stabilizing bandgap voltage faster.