Synchronous Motors For Clocks TRIZ Cases

Dual capacitors harvest induced voltage from the balance oscillator to power continuous frequency regulation without stopping timekeeping.

A magnetic return force stabilizes a timepiece balance actuator at rest, reducing impact-induced parasite braking pulses and preserving frequency regulation.

An OS switches among strict, opportunistic, and automatic sensor report modes to resolve app rate conflicts with accurate delivery and lower power use.

Low-pass filtering with charge reset improves time code pulse distinction under weak, noise-contaminated radio wave conditions.

An accelerometer-guided stepper motor corrects tower clock hand position against wind, deformation, and aging to maintain accurate time display.

A receiver reconstructs transmitter local time from a reference time and elapsed duration, avoiding exact clock synchronization while keeping timestamps accurate.

Reference-pulse feedback corrects RTC frequency drift from aging while also adjusting internal time to maintain accurate clock output.

Internal clock drift can corrupt timestamps in aerosol devices; GNSS satellite time provides a worldwide reference for selective correction.

An added power storage device can enlarge the timepiece; switched parallel connections improve energy transfer while limiting voltage drop.

GPS-disciplined DCS units replace long cables for precise instrument synchronization.

A single synchronization message coordinates operating and timing clocks, reducing networking complexity while maintaining accurate time synchronization.

A time synchronization device updates a time correction field by subtracting reception timestamps and adding processing delays to streamline signal timing.

A mixed media call manager uses software virtualization to transmit voice and video across existing networks.

A timepiece controller selects between direct signal correction and position-based adjustment to manage power usage.

Simple pulse timing detection calculates offsets within tolerance ranges to correct internal clock drift without full code reception.

A pulsar signal receiver disciplines a local clock using celestial pulse signals to generate precise timing synchronization outputs.

Ground-based FM radio transmitters distribute synchronized timing signals to critical infrastructure receivers.

A motor control circuit adjusts drive current thresholds based on detected voltage to stabilize rotor rotation in electronic watches.

A second synchronization determination unit identifies driving noise in time code signals to maintain continuous hand movement during radio wave reception.

A marker detecting apparatus samples signal levels at specific points within characteristic intervals to identify pulse positions in time code signals.

A clocking device stores correction values to adjust update timing of internal data.

A vehicle master time signal determination method uses multiple server signals to ensure continuous availability.

Network terminal exchanges time-series data between nodes to synchronize timers without a central server.

Segmented lubricating apparatus and stator guide simplify processing while maintaining high precision alignment of the rotor and stator axes.

A femtosecond laser frequency comb distributes timing signals to remote nodes for precise clock synchronization.

Accumulating input waveform data to calculate reference and gradient positions for precise time code detection in radio timepieces.

Slave clock equipment detects synchronization messages and adjusts local time using fixed pulse indications within downlink frames.

An artificial GPS emulator transmits radio signals to synchronize distributed aircraft sensors with a reference clock.

A radio wave receiver uses a low-pass filter with a cutoff frequency at twice the data pulse transmit rate or lower to process detected signals.

A multilevel optical modulation method transmits data between a smartphone and watch using distinct light intensity levels.

Cascading timer architecture prevents unauthorized access and resource waste by triggering failover when the primary counter completes.

A secondary clock derives reference frequencies to synchronize ideal clocks in timing devices.

A time transmission correction device synchronizes slave node clocks via a delay setting unit that adjusts packet arrival timing.

A time correcting apparatus compares detected time code data with prognostic reference sequences to calculate discrepancies and shift bits for rapid synchronization.

A dual clock controller manages local time updates using external server data and stored settings.

A time synchronization device manages holdover periods using a predetermined schedule to switch between satellite signals and internal clock sources.