Signal Allocation TRIZ Cases

A base station selects transmission parameters to configure downlink control channels for wireless devices.

Base station selects DMRS mapping patterns for shortened transmission time intervals to prevent collisions with CSI-RS and CRS data.

Terminal devices send acknowledgment information to access network devices for targeted retransmission.

A PUCCH format 3 resource transmits hybrid automatic repeat request information alongside channel state information in multi-radio dual connectivity.

Terminal apparatus determines PUCCH transmission repetitions using a DCI format field or higher layer parameter.

A PDCCH candidate hopping function correlates mapping behavior with time-varying values to reduce persistent collisions between control channel candidates.

Network device configures control resource sets with transmission configuration indication information to indicate specific reference signals for user equipment measurement.

Segmenting time units for N-EPDCCH monitoring reduces blind decoding energy loss while maintaining flexible resource allocation.

Spatial domain filtering configures distinct beam patterns for random access channel preamble transmissions to enhance signal reception reliability.

Dynamic time slot selection resolves simultaneous response interference while maintaining compatibility with existing ECMA-401 association procedures.

A terminal device determines whether to send feedback information based on indication data.

Segmenting search spaces and applying cell-specific offsets renders control data orthogonal, reducing PDCCH interference at cell edges.

Unified TCI configuration supports fewer codepoints than activated states, enabling DCI format 1_2 to schedule PDSCH without changing TCI states.

A terminal device reports current and predicted reference signal measurements to a network device.

Base station signals unused time-frequency resources for direct interference measurement, resolving pessimistic CQI reporting in lightly loaded OFDMA systems.

Joint control channels manage variable transmission time intervals to resolve interference and congestion from listen-before-talk requirements.

Segmenting channel access into beam-specific operations resolves interference reflection accuracy issues while improving system capacity.

A user equipment determines earliest available slots for HARQ-ACK transmissions to maintain sequence integrity.

A terminal device sends first and second uplink transmissions on consecutive or inconsecutive time domain resources within a maximum channel occupancy time.

A terminal device selects target PUCCH resources based on logical channel priorities to transmit scheduling requests.

A wireless communication method determines physical downlink control channel receive time using a physical downlink shared channel reference symbol.

A time domain window mechanism configures uplink repetitions to maintain phase and power continuity.

Implicit scheduling signaling links reference signals to radio resources, resolving beam and power control mismatches across multiple TRPs.

Wireless devices adjust receiver bandwidth based on network scheduling information to reduce power consumption while maintaining downlink traffic reliability.

Segmenting payload data into bandwidth portions allows narrow-band mobile receivers to handle larger channel bandwidths without excessive power consumption.

Configuring CSI-RS reporting periodicity and offset values reduces signaling overhead while maintaining channel state accuracy for high-frequency 5G transmission.

Switching the minimum scheduling offset prevents misdetection errors that increase power consumption and reduce throughput.

A terminal receives configuration information linking search space sets to CORESET pool indices for physical downlink control channel reception.

Pre-configured default TCI states based on active full duplex modes mitigate self-interference and maintain downlink transmission reliability.

Encoder device relays user equipment decoding status to base station, resolving information loss during network coded sidelink retransmissions.

A terminal control section determines downlink control information field size based on transmission configuration indication states and capability information.

A downlink control region configuration method determines a last control channel element index to allocate resources for transmission candidates.

A user terminal receives time interval information to control downlink control channel monitoring.

Target nodes signal QoE support in handover commands, preventing fragmented reports and wasted uplink resources.

Pre-configured gap patterns switch via MAC CE commands to reduce signaling overhead and latency for positioning tasks.

Activate deactivated search space sets via DCI to reduce UE power consumption while maintaining communication adaptability.

A user equipment manages uplink and sidelink transmissions by comparing logic channel priorities against configured thresholds to determine transmission order.

User equipment maps uplink control information bits to physical uplink shared channel resources and copies symbols across subsets.

Multiple quasi-co-location information sets enable spatial diversity gain, resolving high channel correlation limits in ultra-reliable low-latency scenarios.

A base station orders PDCCH search space sets by aggregation level to guide UE decoding.

User equipment reports inference errors from comparing predicted and measured beam characteristics, enabling network entities to refine machine learning models.

A base station transmits an indication to skip semi-persistent scheduling occasions.

A network entity uses a reference time interval condition to restrict transport block size calculations across multiple carriers.

A user equipment multiplexes channel state information reports on shared uplink resources using prioritization rules.

A wireless apparatus calculates transport block size using resource elements across multiple slots.

User equipment aggregates multiple measurement gap occasions to enable flexible channel measurements.

Autonomous resource nodes process commands using embedded urgency data, eliminating external management overhead while maintaining scalability.

Multiple downlink control information schedules independent physical uplink shared channel repetitions across distinct transmission reception points.