RRC Idle Mobility Measurement Optimization

The patent applies local quality by differentiating between first performance frequencies and second performance frequencies, where first performance frequencies require monitoring of multiple SSBs while second performance frequencies require monitoring of only one SSB. This localized differentiation in measurement requirements reduces overall power consumption while maintaining cell reselection reliability through selective frequency monitoring based on actual signal conditions.

The patent changes the measurement parameters dynamically by adjusting the number of SSBs to be monitored based on frequency performance characteristics. For second performance frequencies, the measurement requirement is reduced to one SSB, while first performance frequencies require multiple SSBs. This parameter adjustment resolves the contradiction by adapting measurement intensity to actual frequency quality, reducing power consumption without compromising reliability.

The patent applies local quality by categorizing frequencies into first performance frequencies requiring full measurement (multiple SSBs) and second performance frequencies requiring reduced measurement (one SSB). This localized measurement approach ensures adequate measurement coverage for critical frequencies while reducing wake-up duration through selective monitoring of less critical frequencies.

The patent applies partial action by monitoring only one SSB for second performance frequencies instead of the full multiple SSBs required for first performance frequencies. This partial measurement approach maintains sufficient measurement coverage for cell reselection while significantly reducing wake-up duration and processing requirements.