Signal Allocation TRIZ Cases

A frequency hopping pattern dynamically adjusts transmission parameters to optimize uplink and downlink resource allocation.

A terminal determines uplink control information multiplexing in physical uplink shared channels with multiple transport blocks.

Base station selects bottom OFDM symbols in PUSCH to replace data resources with rank information, resolving resource constraints from fixed subframe reporting.

A user apparatus selects a physical uplink shared channel for control information transmission based on cell configuration.

Time reversal techniques exploit multipath channel structures to capture channel state information and achieve high communication capacity.

A sidelink transmission configuration indicator mechanism selects a single active state using predefined priority rules to resolve command conflicts.

A beam management method selects reference signals from multiple TCI states to configure failure detection resource sets.

NB-IoT systems reduce signaling overhead by dynamically switching between common and dedicated control signaling to allocate frequency resources.

Switching search space monitoring periodicity after control reception reduces energy consumption while maintaining communication reliability.

Segmenting PSFCH resources by domain reduces collision probability in standalone sidelink CSI-RS multiplexing while maintaining manageable complexity.

A narrow-band communication mode allocates fewer resource elements to reduce bandwidth usage.

User equipment detects latency-sensitive traffic and performs transmission during configured measurement gaps.

Mobile terminal performs periodic intra-frequency measurements on a secondary uplink frequency and reports results to the network.

Enhanced physical downlink control channel uses spatial division multiplexing within the data region to increase available control resources.

Amplitude and phase quantization of weighting coefficients reduces feedback overhead while maintaining spatial accuracy.

Network device resolves time domain resource overlap between first and second PDSCHs by adjusting scheduling parameters based on service priority.

A signal processing apparatus configures multiple sending manners for reference signals to manage resource conflicts in 5G New Radio systems.

Terminal devices determine DMRS ports via identification data to resolve indistinguishability issues caused by missing antenna fields.

A bitmap-based downlink pre-emption indication mechanism enables dynamic resource sharing in next-generation radio access networks.

Merging separate scheduling grants into one unified downlink control information message reduces decoding complexity and prevents parameter selection errors.

User equipment selects physical downlink shared channel repetition numbers based on received downlink control information formats.

A configuration method allocates resources between self-backhaul and access links using dynamic sets.

A radio receiver derives channel parameters from an initial signal pattern to adapt receiving settings, eliminating proprietary protocol dependencies.

Forwarding synchronization signal block measurements to request targeted channel state information reference signal configurations.

User equipment determines precoding resource block group size via downlink control information to decode physical downlink shared channel transmissions.

Source nodes embed redundancy sequence numbers in handover requests, enabling target nodes to maintain PDU session continuity without renegotiation.

Transitioning channel quality reporting between CQICH and MAC messages maintains consistent PCINR feedback when capacity limits are reached.

Selecting between Reed Muller and Polar codes as inner codes for concatenated encoding schemes based on channel parameters.

Anchor base station retains paging parameters locally to perform RAN-based paging, resolving core network message gaps for inactive user equipment.

Sending unified downlink control information to multiple terminals reduces total overhead while maintaining individualized parameter accuracy.

Segmenting broadband radio resources into independent regions allows terminals to generate channel state information only for allocated areas.

Autonomous detection of cell-specific reference signal muting enables user equipment to optimize radio resource management and maintain measurement accuracy.

A cross-subframe control mechanism allocates distinct subframes to base stations for transmitting control information.

Terminal device selects a physical uplink shared channel satisfying preset conditions to multiplex uplink control information, resolving selection complexity.

Smart repeaters receive Radio Resource Control messages to configure service link beams, aligning transceiving requirements with network devices.

Wireless transmit/receive units autonomously select demodulation reference signal subsets to manage NOMA transmission types.

Varying phase shifts across resource blocks reduces peak-to-average power ratio and cube metric values in uplink transmissions.

Configures scrambling sequences based on search spaces and transmission modes to differentiate users on shared time-frequency resources.

A terminal receives downlink user data while in an RRC_INACTIVE state using notification indications from a base station.

Segmenting control signaling onto the highest modulation coding scheme uplink channel reduces system complexity while maintaining reception reliability.

Logical zone segmentation with NOMA and SIC allows preamble reuse to reduce network access delays.

A User Equipment selects between PUCCH and PUSCH for uplink control information using RNTI-based signaling.

Terminal device selects uplink grant resources by evaluating time-domain positions and remaining transmission times, reducing delay for URLLC services.

A V2X terminal determines resource parameters from service features to reduce transmission delays and enhance reliability.

Dynamic CCE allocation reduces blockage probability and improves throughput by distributing signals based on aggregation levels.

Hierarchical modulation transmits user data on a control channel alongside control data, resolving the trade-off between spectral efficiency and robustness.

A radio access node orders user equipment candidate sets by wideband metrics to resolve scheduling conflicts in multi-user superposition transmission.

Optimizing uplink resource allocation for narrowband devices enhances transmission capacity while managing complexity through dynamic pool configuration.

Bundling multiple CoAP transactions into one batched request reduces communication time and power consumption by eliminating sequential acknowledgement delays.

Configures multiple CSI-RS sub-resources to enable separate channel measurements for azimuth and elevation dimensions.