Transmission Path Division TRIZ Cases

Enhanced UE assistance information signals preferred bandwidth parts to scheduling entities, resolving power and coverage trade-offs during 5G NR handovers.

A multi-carrier communication system transmits control signals to ascertain control region sizes for reliable detection.

Superposition modulation utilizes clipping noise from peak-to-average power reduction to transmit additional data without degrading primary signal quality.

Predefined DMRS sequence groupings resolve autocorrelation deterioration in 5G NR pi/2 BPSK networks by ensuring deterministic hopping.

A mobile terminal test apparatus displays a path image linking component carriers to signal processing units.

Frequency block allocation method calculates indices based on bandwidths and loads to ensure equal allocated bandwidths across mobile stations.

Periodic transmission of physical downlink control and uplink shared channels improves wireless system throughput while managing limited radio resources.

Dynamic candidate adjustment resolves the trade-off between detection reliability and device complexity in wireless systems.

User equipment employs channel-based beamforming using predefined matrices to reduce power consumption from multiple radio-frequency chains.

A transmission method combines sparse and non-sparse spreading to reduce peak-to-average power ratio.

A DMRS configuration determines transmission resources within a physical downlink control channel to avoid interference with cell-specific reference signals.

A primary channel hopping pattern assigns time windows to frequency segments, enabling efficient uplink access for 80 MHz stations.

Dynamic switching between space frequency block coding and space time block coding eliminates orphan resource elements in LTE semi-open-loop transmission.

User equipment selects a reference control resource set and removes overlapping candidates based on quasi co-location parameters.

A terminal extends synchronization signal block indexes to manage high frequency bands.

A base station allocates fractional resource blocks to user equipment based on enhanced voice service packet sizes.

Dynamic switching of PDCCH monitoring via MAC control elements reduces power consumption by minimizing time spent in active states.

Zero power CSI-RS configuration allows target UEs to detect interference parameters from co-scheduled users, reducing blind detection complexity.

Pedestrian devices encode location data into time-frequency sequences to indicate physical position, reducing power consumption and in-band interference.

A transmission apparatus configures first and second search spaces within allocation unit groups to map control information for multiple component carriers.

Determining distinct almost blank subframe patterns per component carrier in macro enhanced Node Bs to coordinate data transmission across heterogeneous networks.

A user equipment determines transmission bandwidth using allowed discrete Fourier transform sizes to generate scheduling assignments.

A User Equipment performs channel quality measurement in extension component carriers using reduced reference signal density indicators.

Cross-carrier scheduling configuration allows a secondary cell to schedule the primary cell, reducing control signaling load in 5G systems.

Dynamic channel selection routes uplink control information to PUSCH or PUCCH based on scheduling, reducing peak-to-average power ratio.

Physical layer neighbor cell channel state information reporting bypasses time-consuming layer 3 processing to accelerate cell switching speed.

A user equipment requests a future positioning reference signal session to optimize network resource allocation.

An always-on S1-U bearer maintains a persistent data pathway for user equipment in idle mode.

Dynamic activation and deactivation of bandwidth parts reduces power consumption while supporting diverse data traffic profiles.

Configures separate common search spaces for machine type communication devices to monitor tailored control information.

A PDCCH detecting method associates second downlink control information with first scheduling data to reduce maximum blind detections.

Advanced receiver uses orthogonal DMRS ports to estimate and cancel interference from neighboring cells.

A nested reference signal structure maps multiple sequences to interleaved resources within a single symbol.

Configuring hopping intervals via higher layer signaling optimizes channel utilization and reduces interference in NB-IoT systems.

User equipment encodes physical random access channel sequences to enable early data transmission during the random access procedure.

Segmented tone groups allocate frequency resources for cellular internet of things devices to reduce interference with adjacent wireless systems.

A communication device transmits varying user equipment capabilities to networks based on attachment state.

Consolidating scheduling data into single messages reduces control signaling overhead while maintaining flexibility for multi-transmission point operations.

A base station reassigns EPDCCH candidates across aggregation levels to optimize resource allocation.

Dynamic ePDCCH resource allocation segments control information to resolve the trade-off between spectral efficiency and device complexity.

Station configures EDMG STF field using orthogonal sequences across bonded channels to optimize power distribution.

A mathematical function expands PUCCH resource selection capacity before dedicated RRC configuration.

A carrier current modem adjusts bit allocation across frequency planes to manage spectral power density levels.

Bundles channel status feedback with reference signals to establish uplink downlink relationships for accurate precoding.

A joint downlink control information field configures multiple component carriers simultaneously, reducing signaling overhead in carrier aggregation networks.

A base station configures search spaces with variable CCE-to-candidate associations to reduce terminal blind decoding operations.

Multiplexes channel quality indicators across multiple downlink carriers onto a single uplink shared channel using designated offsets.

Segmenting EPDCCH candidates into separate sets reduces terminal monitoring complexity while maintaining detection reliability.