Signal Allocation TRIZ Cases

Dynamic resource block allocation shifts frequency locations across time units to satisfy the 80% occupied channel bandwidth requirement in unlicensed bands.

A two-part uplink control information encoding method separates critical timing indicators from measurement data to enable rapid physical layer transmission.

A terminal device determines target time parameter sets with different lengths to generate a unified codebook.

Detects DCI formats to distinguish between clustered and contiguous uplink resource allocation protocols.

NR Uu groupcast HARQ feedback mechanism assigns dedicated RNTIs and allocates PUCCH resources to support transmission reliability.

A semi-static HARQ codebook creation method determines candidate PDSCH reception occasions based on time domain resource allocation tables.

Base station allocates uplink control resources from a pre-configured pool to user equipment for independent data transmission.

A network node generates scheduling messages containing resource block assignment information to direct user equipment uplink transmissions.

A network interface controller allocates a single dynamically-connected initiator context to serve multiple target processes.

A PUCCH channel allocation method pairs control symbols with channels to maintain spatial diversity across multiple antenna ports.

Segments legacy subframes into shorter intervals and applies partial reference signal allocation to reduce latency while maintaining orthogonality.

A PDCCH monitoring method configures control channel parameters on a target active downlink bandwidth part after switching.

A user equipment determines a feedback mode based on CSI-RS port counts and high layer signaling to support flexible transmission.

Segmenting uplink transmission into distinct units improves reliability while controlling resource overhead by optimizing beam configuration.

Dynamic priority adjustment resolves the trade-off between downlink reception quality and uplink transmission efficiency.

A machine-type communication user equipment measures wideband channel quality by averaging narrowband indicators from reference signals.

A terminal receiving section processes Physical Downlink Control Channel configurations to manage transmission states across multiple panels.

Multi-value HARQ-ACK feedback adapts to channel conditions, optimizing spectrum efficiency by reducing unnecessary resource allocation.

Dynamic repetition count determination for LPWA data transmission.

Adaptive beamwidth channel sensing resolves spatial reuse challenges in unlicensed spectrum by tailoring detection methods to specific antenna configurations.

A wireless communication system adjusts transmit power based on resource block overload ratios to maintain signal integrity.

A terminal transmits capability information to determine the number of cells where Physical Downlink Control Channel monitoring occurs.

A sidelink positioning reference signal resource pool uses comb-N patterns and control information scheduling to define frequency resources.

Configures a common PUCCH resource pool and selects feedback modes to manage multicast transmissions.

A 5G uplink scheduler spreads assignments across multiple downlink slots to optimize control channel usage.

A relay unit relays control messages and sends negative acknowledgements when uplink transmissions fail.

Central master coordinates pooled resources across blade cluster switching center servers for efficient call handling.

A UE transmits acknowledgement feedback in RRC inactive state using determined resources.

A full-duplex wireless system transmits data and acknowledgement packets on separate frequencies to enable concurrent communication.

Base station signals collision type to user equipment, enabling rate matching adjustments that mitigate interference and improve throughput.

A relay node device dynamically configures time domain resources to coordinate reception from a parent node and transmission to a child node.

Communications controller signals search space configuration to reduce signaling overhead and improve data transmission rates.

Homogeneous transmitter uses configurable legacy modulators to implement non-orthogonal multiple access schemes while reducing hardware complexity.

Network devices negotiate unified OFDM symbol mapping rules across cooperative cells to enable accurate signal reception by user equipment.

A terminal apparatus measures channel quality indicators using reference signals to generate reports.

User equipment compresses feedback messages by counting empty transmission occasions to limit unnecessary network transmissions.

Time division multiplexing separates forward and reverse sidelink resources, resolving inconsistent switching times that degrade receiving performance.

Dynamic interference configuring units adjust measurement resources to resolve static link adaptation bottlenecks and improve accuracy.

Dynamic DMRS bundling duration configuration maintains transmit phase coherence, improving channel estimation robustness in 5G NR systems.

User equipment determines time domain windows via base station indication to balance slot distribution.

Automated orchestration eliminates manual intervention for managed object lifecycle operations while managing increased NFV-MANO system complexity.

Extended Clear Channel Assessment employs dynamic backoff counters to achieve frequency reuse rate 1 while reducing interference in unlicensed bands.

Mobile station identifies a reference PDCCH candidate based on timing criteria to determine downlink feedback validity for uplink transmissions.

Aperiodic sounding reference signal requests trigger uplink transmission based on duplex scheme matching between primary and secondary cells.

A listen-after-talk scheme coordinates data transmission using destination node sensing and notify-to-send signals.

Satellite access points forward encrypted payloads directly to wireless stations without decrypting or re-encrypting data.