Radio-Controlled Time-Pieces TRIZ Cases

GPS pulse signals synchronize local oscillators and counters to deliver precise shared timestamps across autonomous vehicle sensors.

Adaptive gate time and target adjustment speed high-frequency reference correction while preserving GPS-PPS-based accuracy.

Measures GNSS antenna-to-grandmaster delay so 5G RANs can program clock offsets and maintain precise synchronization.

Terrestrial RF signals are converted into a stable clock source, maintaining accurate time and date output when GPS timing is disrupted.

Correlated clock samples and offset averaging align robotic timestamps without GPS or network time for perception and control.

A time translation service aligns sensor measurements across independent clocks for reliable robot perception in GPS-denied settings.

Different-duration overlay codes create measurable phase offsets, helping GNSS receivers resolve time ambiguity much faster than TOW acquisition.

A receiver samples standard time signals to calculate total first level signal width for accurate code differentiation.

A radio-controlled timepiece sets optimized receiving terms for satellite signals based on elapsed time and internal clock error.

Processor selects time data from external device or radio waves based on settings, reducing operation complexity and power consumption.

A tachograph control device adjusts its internal real-time clock using microsteps to align with satellite navigation time.

Temperature-based drift correction maintains seismic sensor clock accuracy despite ambient thermal variations, ensuring reliable survey timing.

A terminal device pauses RLF detection timers during GNSS measurements to maintain active connections.

Planar and bar antennas receive satellite and standard time signals, reducing thickness by distributing components.

A satellite signal receiver adjusts search priority based on geographic location to accelerate signal acquisition.

A time information receiver measures demodulated signal edges to identify standard radio wave types.

A distributed electromagnetic instrument synchronization system uses satellite communication to align transmitter and receiver timing.

A unified tracking loop sums correlation values across multiple satellite channels to determine receiver timing hypotheses.

Segmented processing of C/A and P codes establishes timing references that reduce synchronization time without increasing device complexity.

A hybrid receiver aligns correlators using LEO signals and broadcast data to synchronize clocks.

Processor extracts essential code sequences from satellite waves to reduce energy consumption while maintaining date/time reliability.

A disciplined clock applies frequency corrections to a local oscillator using time differences detected from common view signals.

Multiband GNSS receivers perform common view time transfer using event time tagging to resolve scalability limits in traditional timing systems.

Conductive watch hands act as antennas to resolve shielding issues in metal casings.

Updating date and time from a single satellite corrects initial value deviations, reducing Time to First Fix.

A time information obtaining device uses a majority voting system to correct misidentified codes from standard waves.

A hardware centralized time synchronization hub generates precise TX and RX timestamps for autonomous vehicle sensors using GPS pulse signals.

An embedded file network server converts seismic data streams into files via dual-channel DMA transmission.

A radio-controlled timepiece adjusts date and time updates based on leap second notices.

A timepiece controller switches between satellite and standard receivers based on battery voltage to maintain operation.

A radio controlled timepiece uses dual reception cycles to verify internal clock accuracy against received signals.

A satellite radio signal receiver compares received bits with estimated values to acquire date and time information.

Segmented antenna sectors and dynamic power control enable precise 3D tracking of slow-moving UAVs while suppressing clutter interference.

Processor stops acquiring satellite signals when error range meets accuracy standards, resuming only if positioning precision degrades.

A radio-controlled timepiece calculates present date and time within a set 10-year specified range using stored reference data.

A device processes radiofrequency signals from multiple satellite positioning systems to deduce time data and calculate a compatible UTC date.

Sequentially sampling multiple GNSS constellations with one receiver detects source anomalies without adding hardware complexity.

A radio receiver adjusts signal amplification gain based on satellite reception conditions to optimize power usage in electronic timepieces.

A predictive clock modeling system synchronizes multiple clocks using local voltage-controlled oscillators and phase-locked loops.

Periodically varying the center frequency prevents spoofing attacks while maintaining unencrypted signal accessibility.

A radio clock receiving unit maintains synchronization with a GPS satellite using a local code for correlation to preserve signal sensitivity.

A mobile station determines its time zone using geographical coordinates from GNSS and universal time from a dedicated server.

Walking state determination enables conditional GPS reception, preventing inaccurate time corrections indoors and reducing electricity consumption.

A frequency setting unit adjusts digital display driving waveforms to prevent overlap with standard radio wave frequencies.

A timepiece CPU adjusts reception timing based on user-selected city schedules to switch between standard and daylight saving time.

A GPS wristwatch adjusts signal reception start times based on stored results to optimize acquisition.

Selective extraction of second-level time data reduces processing load and power consumption while maintaining accurate date and time information.

Satellite navigation receivers estimate UTC time by retrieving stored time of week values and offset parameters from local memory.