Signal Allocation TRIZ Cases

Bundling resource element groups in CORESETs aligns boundaries to eliminate residual resources and reduce blocking probabilities.

User equipment transmits a coherence indication with uplink control information to enable joint channel estimation across multiple physical uplink shared channel transmissions.

Extracting uniformly spaced subcarriers enables low-complexity detection of ranging customer premises equipment in orthogonal frequency division multiple access systems.

A wireless device determines sidelink DRX active time based on downlink DRX parameters and simultaneous reception capability.

A terminal determines the number of aperiodic channel state information processes to update based on its processing capability.

Reducing control overhead by sharing physical random access and shared channel resources between reduced capability devices.

Base station allocates uplink resource blocks based on channel quality information bit count to ensure sufficient transmission bandwidth.

User equipment transmits HARQ feedback on target PUCCH upon receiving listen before talk failure indication to enable network device resource reconfiguration.

Defines rate matching indicators for resource element mapping in TDD NB-IoT special subframes, resolving FDD compatibility issues while supporting 16-QAM.

User equipment receives aperiodic tracking reference signals on a secondary cell to perform time and frequency tracking.

Segmenting downlink bandwidth into self-contained sub-bands allows user equipment to monitor control channels within assigned frequency ranges.

First device sends preempted resource position information to second device, allowing discard of corrupted data and improving spectral efficiency.

A wireless communication method schedules data channels to enable acknowledgement feedback from multiple reception devices.

Mapping control channels into the data channel region via space division multiplexing reduces overhead and expands system capacity.

A controller manages uplink panel changes by activating a second antenna panel to shift transmission beams.

Nodes determine access timeslot status via feedback to place queues accurately, preventing contention delays caused by channel interference.

Dynamic muting patterns enable additional CSI-RS transmissions in muted resource elements, resolving signaling overhead constraints.

Base station transmits downlink grants on shared resource units to enable efficient signal detection by user equipment.

User equipment selectively transmits hybrid automatic repeat request feedback for downlink control information containing beam and pathloss reference signal activation data.

First user equipment relays sidelink control information on designated resources for retransmission by a second device.

A user terminal maps reference signals to fixed symbol positions across varying uplink control channel formats.

Adjusting modulation and coding scheme limits based on subcarrier spacing reduces inter-carrier interference in high-band wireless links.

A coordinated access and backhaul network adjusts signaling parameters to maintain link margin.

First terminal device performs joint coding on uplink data from multiple terminals to eliminate feedback retransmissions and reduce transmission delay.

A beta-offset value determines modulation and coding scheme offsets for uplink control information transmission on physical uplink shared channels.

Coordinated nulling transmissions cancel inter-cell interference, enabling full frequency reuse and higher data rates.

Dynamic RRM measurement gap configuration based on reported activity reduces unnecessary measurements and saves UE power.

User equipment supports multiple phase tracking reference signal configurations to enable multi-PTRS communication with base stations.

Flexible resource allocation unit dynamically adjusts uplink resource pools to support mixed traffic services.

User Equipment Specific Search Space distributes control channel resources across frequency subbands to enable efficient monitoring.

Segments configuration parameters by interference type to resolve the trade-off between device complexity and transmission performance.

A terminal device selects random access preamble blocks based on downlink control channel index information to optimize uplink transmission.

System information blocks convey frequency and time-domain configurations to low-complexity UEs, enabling PDCCH initialization despite limited bandwidth.

A terminal determines a downlink control channel monitoring window starting slot using physical broadcast channel configuration parameters.

Base station transmits identification information to specify unique demodulation reference signal resources for mobile stations.

Dynamic uplink control channel configuration allocates resources based on terminal coverage and urgency.

A broadcast control channel multiplexed with unicast channels provides common control information over shared spectrum carriers.

A user equipment determines transmission configuration indicator states for single frequency network physical downlink control channel monitoring using configured resource sets.

A WLAN frame structure uses segmented signal fields with distinct modulation schemes to indicate transmission modes for receiving devices.

Segmented measurement pilots and dynamic beamwidth control reduce channel variation overhead while sustaining high data rates.

A PPDU signaling field uses specific bit states to indicate vendor specific information within WLAN data units.

A PSFCH resource mapping method allocates interlaces within a resource block set to organize sidelink feedback transmissions.

Segmenting resource pattern bits into groups allows user equipment to manage extended scheduling periods while reducing control information overhead.

A paging indicator reference signal allows user equipment to skip monitoring paging control channels.

Terminal device requests transmission resources for channel state information only when specific trigger conditions are met, reducing occupied bandwidth.

Segmenting the control channel into mutually exclusive modules reduces signaling overhead while maintaining adaptability for diverse device classes.

User equipment activates semi-persistent scheduling configurations using downlink control information with a feedback process field.

Configuring multiple search space set groups allows user equipment to selectively monitor physical downlink control channels based on dynamic indications.