Synchronisation Arrangement TRIZ Cases

Target base station derives timing advance from source uplink signals, eliminating post-handover random access delays.

Timestamp exchange enables delay calculation between radio equipment control and radio units, maintaining stable communication latency.

Periodic signal exchange reduces energy consumption while maintaining synchronization accuracy in dynamic ad hoc networks.

Periodic monitoring of positioning reference signals during inactive states maintains accuracy while reducing energy consumption.

Local bearer context deactivation by access terminals resolves synchronization reliability issues during coverage loss, ensuring efficient resource release.

Mapping access node clock intervals to a synchronized wireless network frame structure reduces scheduling overhead and resource utilization.

Segmented synchronization signal blocks enable narrowband terminals to receive configuration data via adjusted frequency bandwidths.

Dual time counters with distinct clock sources generate a compensation value that refines timestamp precision from 8ns to 3.6ns.

Terminal initiates random access to obtain secondary timing advance, reducing signaling overhead and preventing uplink collisions.

Segmented radio frequency chains enable a user equipment to switch between LTE and NR sidelink modes without interrupting uplink connectivity.

A terminal acquires system frame number information from a primary cell to configure secondary cells for dual connectivity.

Interpolating channel estimations from synchronization signals to demodulate physical broadcast channel symbols.

Segmenting indication into positional and magnitude relationships reduces physical broadcast channel bit usage while maintaining precise timing alignment.

Segmenting synchronization signals across multiple OFDM symbols resolves high path loss detection failures in wireless networks.

A bandwidth-limited user equipment selects a specific initial control resource set to acquire system information within its capability constraints.

Terminal device acquires target PRACH resource set from multiple options to determine optimal transmission resources.

Electronic device coordinates spectrum resources between management devices to enhance utilization efficiency.

Transmitting multiple sidelink synchronization blocks across distinct bandwidth subsets using varied sequence shifts and identifiers.

A sidelink positioning method exchanges synchronization status data between user equipment to determine location measurements.

Timing beacons synchronize full duplex mesh nodes, mitigating self-interference and link variability to improve throughput.

A wireless device configures semi-persistent channel state information reports via radio resource control messages and downlink control information.

A terminal device receives uplink multiple access frames to autonomously determine transmission timing and secure wireless resources.

A terminal determines its system operating mode by obtaining geographical location and synchronization signal block information.

Time offsets adjust beam failure recovery response timing to compensate for propagation delays, reducing power consumption in non-terrestrial networks.

A terminal device synchronizes time using a Time Sensitive Network clock source to improve synchronization accuracy.

Wireless apparatus transmits identification and data packets to exchange information without establishing a formal communication link.

A terminal device identifies secondary cells using discovery signal measurement timing configuration and specific measurement cycles.

User equipment resolves conflicts between access network information and ANDSF policies to improve traffic routing efficiency.

Dynamic timing window adjustment based on previous signals resolves interference issues while maintaining resource utilization efficiency.

A communication device calculates transmission offset time using sequence numbers and division parameters to distribute data packets across allocated time slots.

Scaling K1 and K2 values accommodates low-capability user equipment in non-terrestrial networks without increasing DCI signaling overhead.

A timing synchronization method uses cross correlation functions to capture channel energy for accurate signal detection.

A user equipment maintains uplink synchronization with candidate non-serving cells without establishing active links.

A method identifies valid random access channel occasions by aligning physical random access channel slots with detected synchronization signal blocks.

A data system evaluates subband channel quality reports to identify optimal resource blocks for physical random access control channels.

A hyper-precise time framework achieves sub-nanosecond accuracy via laser interferometry and Real-Time Kinematic positioning.

A half duplex communication method synchronizes uplink sub-frames using an incremental timing advance value.

A D2D terminal selects resource blocks using exponentiation values to optimize subchannel allocation.

A user equipment detects handover conditions and transmits random access signals on pre-configured uplink resources to initiate mobility procedures.

User equipment receives downlink reference signal scheduling to synchronize uplink transmission timing and frequency alignment.

A base station determines a synchronization signal block transmission pattern based on listen-before-talk outcomes to maintain system timing.

Base stations transmit listen before talk mode indications within synchronization signals to user equipment.

A wireless node estimates propagation delays using GNSS kinematic data to schedule packet transmissions with precise holding delays.

A lean synchronization signal block transmits essential signals within a narrow bandwidth part to support user equipment operations.