Signal Allocation TRIZ Cases

A millimeter wave base station initializes radio resources to transmit data packets between network nodes, enabling transmission before reception completes.

User equipment measures neighbor SSB beams to report candidate TRPs for full-duplex pairing, reducing self-interference while maintaining spectral efficiency.

Segmenting transmission periods into signaling and communication intervals reduces uplink delays and service interruptions caused by long beam sweeping windows.

Predetermined mapping rules assign candidate PSFCH resources to reduce allocation complexity while ensuring reliable ACK/NACK feedback.

Segmenting reference signals across multiple symbols resolves the trade-off between shortened TTI duration and channel estimation accuracy in MIMO systems.

A user equipment configures multiple sounding reference signal resource sets to determine transmission parameters for uplink repetitions across distinct transmission reception points.

Pre-configuring DMRS parameters through RRC signaling reduces network overhead and terminal complexity by eliminating blind DCI size detection.

Segmenting common and user-specific search spaces reduces user equipment complexity while maintaining data throughput in wireless networks.

A base station selects resource allocation schemes tailored to reduced capability user equipment capabilities.

Base station notification signaling instructs user equipment to select shift sequence numbers from an expanded range defined by cyclic shift spacing.

An IAB node adds an adaptation layer packet header to data packets for transmission across the Integrated Access and Backhaul network.

Determining PRT locations via pre-configured sequences reduces computational burden and signaling overhead while maintaining effective PAPR thresholds.

Joint 5G positioning combines sidelink and Uu link measurements to resolve low accuracy limits in V2X networks.

Determines signal quality via reference signals from distinct transmission-reception points, resolving protocol layer complexity and enabling faster mobility.

A user equipment segments channel state information into independent sub-configurations to adapt reporting parameters dynamically.

A resource block allocation field uses segmented bits to indicate group indices and quantities for terminal devices.

A control information reception method identifies DM-RS antenna ports based on codeword status to determine signal allocation.

Calculating a distinct RNTI via offset maintains unique identification while preserving the existing RA-RNTI space size.

A unified control channel structure indicates data channel resources using implicit bit field values to support flexible scheduling.

A communication device maintains an absolute maximum energy detection threshold across multiple RRC messages without explicit updates.

Dynamic resource allocation prevents jamming interference by changing the resource locations over time for secure uplink transmissions.

A terminal transmits uplink messages with explicit format indication fields to enable flexible resource allocation in wireless communication systems.

A wireless device selects downlink reference signals to determine radio network identifiers for random access occasions.

A channel access method determines priority information for PRACH and PUSCH resources based on their time-domain relationship.

Low code rate spatial multiplexing maps channel coded bits to modulation symbols across multiple antennas using spreading sequences.

A terminal device acquires second downlink control information from first downlink control information to streamline detection.

A terminal determines a control resource set pool index when configuration information omits the value.

A network entity transmits signaling indicating three-dimensional synchronization signal blocks to user equipment.

Resource mapping apparatus allocates dedicated control resources using resource indices and DRS port indices.

A MAC CE command activates multiple TCI states to determine common beam information across channels.

Network nodes adjust maximum transmission unit sizes via probe packets, preventing packet drops by adapting to varying path constraints.

Terminal selects uplink transmission targets using physical layer properties of allocated grants to satisfy varying quality of service requirements.

Resource allocation informing format distinguishes reserve statuses in the PRB field to prevent UE behavior confusion.

Triggering GC-PDCCH allocates separate feedback resources for each UE, reducing collisions and network overhead.

Target eNB maintains UE connection with secondary eNB during master eNB switching, preventing data interruption and preserving throughput.

A base station receives subband channel quality parameters from user equipment to determine overlapped spectrum usage.

A base station shares a user equipment channel occupancy time for downlink transmissions using uplink scheduling grants.

A MAC subheader includes a second logical channel identity field indicated by an extension marker.

User equipment selects M channel state information reference signal resources from Ks available resources to generate a compact feedback report.

Terminal generates HARQ codebooks for multicast PDSCH using DCI indications to resolve feedback overhead and reliability trade-offs.

Segmenting capability sets for inactive mode reduces configuration complexity while extending network efficiency through tailored PDCCH monitoring.

A method configures PDCCH and CSI-RS monitoring using separate QCL-TypeD parameters for simultaneous detection in shared OFDM symbols.

Transmitter device selects between unilateral and receiver-assisted listen before talk assessment manners for unlicensed channel access.

Mapping uplink control channels to first and last sub-resource blocks maintains uniform maximum transmission power across varying resource block counts.

Sidelink control information formats carry positioning reference signal data to reduce overhead while enhancing measurement precision.

User equipment manages uplink control information mapping across overlapping multi-slot channels to optimize resource utilization.

Segmenting control resource sets prevents data pollution and interference while improving 5G NR resource utilization.