Transmission Path Division TRIZ Cases

Bipartite graph matching in parallel processing units resolves sequential scheduling bottlenecks to reduce complexity and improve allocation speed.

A data scheduling method calculates instantaneous and average rates to allocate physical resources.

User equipment signals supported bandwidth and scaling values across different numerologies to resolve processing burden constraints.

Rotated quadrature amplitude modulation divides signals into in-phase and orthogonal components for virtual channel diversity.

A two-stage uplink control information mechanism uses average channel quality indicator values and differential offsets to reduce feedback bit usage.

Modulating signaling fields with rotated binary phase shift keying enables accurate data packet format detection at the receiver.

Priority-based candidate allocation manages overbooking limits to prevent scheduling drops and ensure reliable downlink control transmission.

A downlink control information mechanism triggers channel state information reports on physical downlink shared channels.

A radio terminal controller manages interlace mapping to transmit physical uplink shared channels across distributed resource blocks.

Dynamic triggering of aperiodic sounding reference signals optimizes resource utilization while minimizing data throughput loss.

Randomly allocating pilot sub-carriers over time prevents intentional narrowband interference while maintaining system reliability and data rates.

A network element configures remote interference management reference signal repetitions based on IoT measurements to optimize transmission.

Configures orthogonal sequence sets for dedicated pilots across frequency-domain granules to stabilize OFDM symbol power.

A signal processing method generates candidate PBCH DMRS sequences and maps them to resource element groups.

Dynamic base station signaling switches uplink demodulation reference signal configurations to maintain orthogonality in multi-user MIMO environments.

Terminal devices report multi-carrier communication capability information to network devices.

A carrier aggregation method segments cells into TDD UL/DL configuration sets to manage diverse uplink-downlink timing across aggregated networks.

A receiving device determines transmission configuration indication states using quasi co-location parameters from lowest control resource set identifiers.

Dynamic dormant bandwidth part switching reduces data exchange processing load while maintaining fast network activation speeds for user equipment.

Dynamic sub-channelization adapts resource mapping parameters to bandwidth features, resolving scheduling flexibility versus device complexity trade-offs.

A low overhead tracking reference signal pattern uses varying bandwidths and discontinuous tone allocations to enhance frequency tracking performance.

Equal DCI bit quantities enable unified blind detection, reducing processing time and improving efficiency across multiple uplink carriers.

Frequency hopping splits large bandwidth positioning signals into manageable segments, enabling limited capability user equipment to handle complex tasks.

A wireless device configures conditional carrier aggregation to initiate faster target cell activation using dynamic triggering conditions.

User equipment transmits receive time difference information between component carriers to align signal arrival times.

Frequency offset between real and imaginary carrier sets replaces time-domain guard intervals, preserving spectral efficiency while absorbing echoes.

A DCI transmission method segments control information into single and multi-cell types to streamline terminal detection processes.

User equipment determines multiple frequency locations within a sidelink bandwidth part for synchronization signal block reception.

Segmenting channel access into flexible time windows aligns data bursts with sensed availability, reducing LBT waiting times and improving resource utilization.

A Partial Collision Multiple Access scheme uses predefined sequence patterns to enable efficient unscheduled data transmissions in wireless networks.

User equipment signals maximum sensitivity degradation values to enable network scheduling decisions that mitigate intermodulation-induced sensitivity issues.

Segmented reference signals and reconfigurable bandwidth mechanisms mitigate interference in unlicensed spectrum.

A measurement apparatus displays resource unit graphic forms to select specific sub-channels for IEEE 802.11ax testing.

A terminal device detects multiple downlink control channels using distinct groups of search spaces or CORESETs.

Indicating target monitoring occasions for multicast control information reduces unnecessary terminal device power consumption.

Segmenting MBMS services across distinct carriers prevents resource conflicts and maintains unicast performance while minimizing call dropping.

A channel interleaver maps data symbols across time and frequency to balance signal-to-noise ratios.

Target base station calculates a final determination value using service state information to select the optimal cell for user equipment handover.

A trellis encoder pairs tones to balance interpolation errors and parity information.

Configures sidelink feedback reporting periods to occupy entire resource pool bandwidth, reducing overhead from unused symbols.

A radio station selects a target frequency within a subcarrier bandwidth to detect signal levels for accurate carrier sensing.

Selecting a specific component carrier for discovery signals reduces search load and power consumption by avoiding exhaustive searches across all carriers.

A terminal device detects downlink bandwidth part similarity to perform uplink operational tasks.

A terminal control unit determines resource pool usability based on device capability.

Channel multiplexing assigns orthogonal patterns to multiple user equipments sharing the same radio resources.

A base station divides downlink control channel resource blocks into subsets to configure flexible transmission units.

A sequence-based signal processing method generates specific sequences to maintain frequency domain flatness and low PAPR.