Wireless Communication TRIZ Cases

MME filters paging messages from default MSC/VLRs to prevent unnecessary signalling waste across the MME-SGSN interface and air interfaces.

Consolidating multiple user groups into a single grant structure reduces resource overhead and scheduling blocking probability in LTE systems.

A radio base station adjusts channel quality metrics using pathloss compensation to schedule resources fairly.

Blind learning algorithms estimate channel bias distributions to mitigate non-line of sight errors and reduce latency in user equipment positioning.

Master base station receives downlink interference indicators to allocate fewer interfering resources, resolving throughput drops in heterogeneous networks.

A communication node identifies edge computing parameters and sends them to the mobile network control plane.

Mobile terminals maintain Serving Grant values across cell changes, resolving spectral efficiency errors caused by conservative RNC scheduling.

Merging L3 and L1 measurement data reduces signaling overhead while maintaining handover accuracy.

A management entity coordinates sidelink resources across different radio access technologies to prevent interference within shared spectrum.

A terminal configures random access preamble transmission timing using an index and additional time domain resource information.

A terminal device determines measurement periods based on positional relationships between configured measurement gaps and timing windows.

Dynamic resource allocation adjusts wireless access gateway capacity based on real-time subscriber session analytic data.

A mobile station processes handover requests using a priority indicator to distinguish mandatory and recommended transitions.

Radio terminals transmit handover control information to a ProSe function entity, preventing configuration mismatches during inter-base station transitions.

Master node estimates throughput to trigger handovers between LTE and HSPA systems, bypassing slow RRC signaling measurements.

Access point assesses aggregate airtime to schedule wireless transmissions, preventing terminal starvation and ensuring fair resource distribution.

A transceiver interrupts slower channel transmission to monitor faster channels for incoming data blocks.

Pre-configuring user equipment with target node details enables early data synchronization, reducing handover delays in dual connectivity networks.

A base station schedules user equipment using downlink control information to configure sets of resources for communication.

A base station configuration distributes Layer 1 processing to remote units to reduce fronthaul data volume.

A wireless device tracks connection events to calculate redundant connectivity availability over time.

Base stations transmit paging forwarding capability settings to host nodes, preventing duplicate radio resource usage during message delivery.

Pre-configuring a smart repeater for autonomous detection reduces signaling overhead and preserves air interface resources while enhancing data throughput.

Listen-before-talk procedures with configurable priority classes optimize uplink channel access in unlicensed spectrum bands.

A message transmitting method allocates first priority resource blocks with shorter time intervals to core V2V message packets.

Carrier indication bitmap segments scheduling fields to reduce control overhead while maintaining resource allocation flexibility across multiple cells.

Source base station forwards multi-modal service parameters to target base stations, enabling seamless service continuity without additional signaling overhead.

A user device fills unused uplink resources with second data types during VoIP transient periods.

A terminal device controller selects transmission methods for stored ancillary information based on data size and network conditions.

Victim user equipment measures adjacent channel interference patterns and reports spatial characteristics to the serving base station.

Server reallocates carrier frequencies to non-compliant devices, reducing network congestion while maintaining application-specific message requirements.

Wireless devices provide feedback on pre-grant resource indications to resolve uplink collisions without heavy coordination overhead.

Base stations assign distinct RNTIs for uplink and downlink preemption capabilities, reducing signaling overhead while optimizing resource allocation.

A network configuration verification system compares stored data with subscriber measurement parameters to identify discrepancies.

Terminal device dynamically adjusts handover decisions upon receiving new configuration data, resolving channel quality attenuation failures.

Access network devices send indication information to coordinate resource scheduling and mitigate signal interference in flexible duplex systems.

A device transmits data copies across separate frequency resources to maintain reliability without adding latency overhead.

Segmenting measurement reports allows mobile devices to attempt handovers to Generic Access Network cells when 2G links fail, preventing call drops.

Target cells signal resource deconfiguration via random access responses, allowing user equipment to avoid invalid resources and maintain handover reliability.

A PUCCH resource indicator dynamically signals repetition factors applicable to multiple uplink control channel types within downlink control information.

A network node selects semi-persistent scheduling intervals based on device requirements and resource utilization.

A serving base station computes a weighted Neighbor Relation Measure from handover failure and call drop ratios to build an optimized neighbor list.

Configures cell-specific and user equipment-specific control channels to maintain continuous communication during handover.

Mobility management entity switches user devices between packet data network gateways to reduce latency caused by excessive routing distances.

A radio communication device evaluates signal quality variations to trigger measurement reporting for mobile terminals.

A mobile terminal maintains an immediate handover state for a predetermined waiting time after switching cells to enable rapid reconnection.

A mobile station monitors target base station radio channels after receiving packet switched handover commands to detect resource allocation.

A base station allocates a single physical resource block to multiple user equipment for scheduling requests.

Nodes share resource position and assignment order data to prevent conflicts during autonomous V2X resource selection.

A remote user equipment switches from indirect relay to direct network communication during a relay handover event.