Synchronisation Arrangement TRIZ Cases

Prioritizing dedicated random-access channel resources during handover improves reliability while managing device complexity through network-side configuration.

Base station sends downlink synchronization reference information to user equipment, reducing beam training complexity in millimeter-wave networks.

Dynamic positioning of the physical downlink control channel enables flexible resource allocation across multiple time domain scheduling units.

A control channel description list transmits configuration data to resolve LTE inflexibility and improve spectrum efficiency.

Predicting user equipment arrival time allows base stations to pre-allocate resources, eliminating random access delays in ultra-dense networks.

A common downlink control channel associates resource sets with target signals for dynamic reception.

A user equipment performs random access in a secondary cell by reusing parameters from a primary cell procedure.

Detecting uplink signal structure resolves excessive delay and signaling overheads in 5G small packet transmission.

Evaluates synchronization accuracy during service discovery to reduce power consumption by switching periodic clock updates on and off.

Envelope detectors create time markers from radio signals, eliminating packet processing delays for nanosecond synchronization.

Base stations coordinate periodic synchronization signal bursts to reduce inter-cell interference and improve measurement accuracy.

Extracting service data signals isolates pilot sequences, suppressing cross-interference and improving spectrum utilization.

An active NAN cluster discovery scheme transmits a cluster discovery message to join networks without continuous beacon waiting.

A base station determines an arrival window for uplink signals to identify false base stations.

Automated identifier calculation eliminates manual device selection from search results, reducing user time and improving connection speed.

A location server configures periodic positioning reference signals and timing parameters for user equipment and base stations.

Bluetooth clock synchronization aligns timing signals, reducing cold start latency for wearable devices with limited antenna volume.

User equipment aligns subframe boundaries to coordinate sidelink communication across LTE and NR interfaces.

A user equipment receives an uplink synchronization indication message to apply a calculated timing advance value on newly configured component carriers.

Network node determines subframe allocation and instructs downstream nodes to insert guard periods into upstream transmissions.

A synchronization network configuration apparatus detects topology and external clock sources to establish extraction paths.

Segmenting frequency resources and transmitting preliminary reference signals reduces coordination complexity while improving spectral efficiency.

User equipment maintains uplink timing by storing initial reference timings and measuring downlink signals to adjust transmission windows.

Selective multicast replication uses group lookup tables to direct packets, enabling graceful node addition without IP stack modifications.

A synchronization bus coordinates frequency hopping between Bluetooth audio transmitters to enable simultaneous multi-channel streaming.

Prevents communication jamming by assigning distinct time slots to each steered-object device, enabling reliable two-way telemetry data retrieval.

Segmenting coverage into broad and narrow beams improves spectral efficiency without requiring additional site backhaul resources.

A wireless node determines timing offsets between wired and wireless clocks to calibrate downstream synchronization.

Virtual radio access network instances create Doppler-compensated spot beams, resolving coverage gaps in rural areas without proprietary hardware.

A terminal calculates timing advance using downlink signal reference moments to synchronize uplink transmission.

User equipment adjusts transmission timing based on received sequences from reference devices, mitigating timing offsets and reducing power consumption.

Dynamic slot allocation assigns unused time resources from security sensor traffic to Wi-Fi communications, reducing interference in shared frequency bands.

User equipment acquires positioning data through dedicated reference signals and beam alignment procedures.

A DECT base station retransmits beacon signals across multiple time slots and carrier frequencies to ensure reliable network synchronization.

A host device combines operation data from multiple user equipments into combined operation data for synchronized graphical interface updates.

Nodes adaptively synchronize extended CCA timings based on detected interference levels in shared spectrum bands.

Dynamic carrier type switching resolves the contradiction between system throughput and legacy terminal compatibility by evaluating UE performance criteria.

A UE confirms secondary node radio resource configuration using MAC control elements to enable dual connectivity.

A data transmission method adjusts carrier frequency at predetermined retuning start times to enable consecutive uplink and downlink operations.

A communication system with baseband units and remote units connected via a switched Ethernet network.

A user equipment applies a fixed timing advance delay to resolve conflicts when multiple serving cells transmit with different transmission time intervals.

Hearing instruments synchronize sample clocks via packet arrival timing feedback, eliminating factory calibration costs and preventing audio artifacts.

A time manager updates system time relations using reference counters and extrapolation intervals to maintain synchronization.

A user equipment determines an initial uplink bandwidth part based on synchronization information received from a base station.

Sharing cell identifiers via common synchronization sequences reduces cooperation overhead while maintaining site distinction through antenna unit IDs.

A terminal control section determines phase tracking reference signal time density based on modulation and coding scheme index values.

A time-frequency resource determining method allocates non-overlapping resources for device-to-device and cellular communications.

A beacon node network generates cryptographic timestamps and hash codes to watermark event data with precise time and location information.

User equipment detects deciphering failures and adjusts hyper frame number offsets to re-establish radio link control synchronization.