Wireless Communication TRIZ Cases

Scheduling node determines Listen Before Talk parameters and signals them via uplink grants to wireless devices.

Network nodes configure dynamic time periodicity values for scheduling request occasions based on specific service types.

A network node estimates total resource requirements before handover to allocate radio resources decrementally.

Session management function distributes frame preemption information to network translators, ensuring accurate time-sensitive communication timing.

A master-proxy-process in Node-Bs executes local control functions to reduce latency during intra-RNC handovers.

A base station device manages terminal handovers using reflection communication signals to maintain connectivity in shielded areas.

A terminal determines a target cell for conditional handover using network-provided indication signaling that configures candidate cells and selection rules.

Reusing one waveform type for both initial and acknowledgement messages eliminates resource fragmentation and processing overhead.

Terminal selects idle configured grant resources based on network notification signaling to transmit physical uplink shared channel data.

Multicast user equipment shares channel occupancy information to select sidelink transmission periods, reducing resource collisions and congestion.

Pre-configured physical uplink shared channel parameters allow user equipment to bypass random access procedures during handover, reducing interruption time.

A mobile station processing unit selects dedicated signatures to skip contention resolution during handover.

A base station configures distinct Information Elements to identify Radio Access Technology types for neighboring cells.

A mobile device monitors connection metrics and instructs a second device to operate as a hotspot for automatic switching.

Distributed radio tags store position data from mobile transmitters, resolving indoor GPS signal loss and reducing setup costs.

Source base station subsystem routes user-plane speech data using core network indication information during local switch handovers.

User equipment selects sensing bandwidth based on uplink transmission parameters to optimize channel occupancy detection.

A processing system buffers payload data during connectionless handovers to maintain transmission reliability.

A user equipment method segments multiband capability data to report supported and overlapping bands while validating target cell carrier frequencies.

Wireless stations switch between legacy and multi-user EDCA parameter sets to manage channel access dynamically.

Target control apparatus investigates multiple candidate cells to acknowledge handover requests, reducing extra signaling and completion time.

Dynamic clear channel assessment level selection improves spatial spectral efficiency by adapting thresholds to active channels and bandwidths.

Measurement signaling coordinates data transmission gaps to enable single-receiver subscriber stations to monitor adjacent frequency bands.

Segmenting flows between nodes enables direct data forwarding to both stations, resolving incomplete transfer bottlenecks during handover.

Signaling with node indication fields maps transmission points to measurement sets, resolving identification loss and enabling accurate scheduling.

AI engines analyze application performance requirements and network capabilities to trigger dynamic slice creation.

A terminal determines a target cell by combining historical camped-on data with neighboring lists.

Base stations adjust TDD time slot usage based on predetermined conditions to align communication directions with carrier networks.

A user equipment device schedules first radio access technology measurements based on second radio access technology signal quality metrics.

A cellular base station configures a wireless device with multiple candidate cell handover conditions to execute autonomous transitions without real-time signaling.

Semi-persistent scheduling and sensing techniques reduce collision probability in user equipment-to-equipment communications.

A communication control device allocates wireless resources based on terminal location metadata without modifying facility equipment.

Pre-calculated cost functions enable autonomous scheduling decisions that minimize latency and maximize medium utilization while preventing packet starvation.

A user equipment skips uplink transmission occasions to repurpose allocated resources for radio frequency sensing signals.

A wireless device coordinates periodic and aperiodic sensing occasions to optimize resource monitoring.

A user equipment monitors distinct search spaces within a 5G downlink control channel to identify associated radio access technology.

A WTRU transmits uplink control information reporting channel access outcomes to a base station.

Predictive handover analyzes navigation and public transport data to calculate target probabilities, reducing latency and call drops in dense networks.

A sending end transmits control information on partial physical resources of a reference signal using low bit rate coding and low order modulation.

A wireless handover mechanism uses motion data to assess device speed and cell characteristics for connection transitions.

User equipment adjusts radio resource management measurement periodicity based on mobility and location data to reduce power consumption for stationary devices.

Selective backoff application for prioritized access prevents blocking of emergency and high-priority connections during network congestion.

A relay UE forwards resource pool data to remote UEs outside network coverage, enabling device-to-device communication without direct base station access.

Skipping unused uplink grants reduces battery consumption and interference while maintaining scheduling reliability.

A mobile device manages voice communication delivery by switching between cellular and wireless networks based on user-defined security profiles.

Wireless devices determine PRACH preamble repetition numbers from system information to optimize random access resource allocation.

A wireless device selects sidelink resources from a pre-configured pool and skips continuous re-evaluation to reduce processing overhead.

Access network device sends reselection configuration information to user equipment for multi-carrier cell evaluation.