Transmission Path Division TRIZ Cases

Base station allocates resource units with different frequency bands to user devices using dynamic hopping patterns.

A communication control device selects usable subframes to notify secondary systems of available frequency bands.

Segmented DCI parsing adapts to compact or regular formats, enhancing transmission reliability while reducing signaling overhead.

Network coordinates TDD frame and D2D discovery configurations to transmit signals on uplink subframes, minimizing interference with cellular communications.

Dynamic TDD frame structure assigns physical resources for control signaling instances across flexible subframes.

Configuring unified measurement periods and puncturing schemes reduces reference signal density for user equipment.

Wireless devices skip specific PDCCH candidates based on scheduling indications, reducing processing complexity while maintaining cross-carrier reliability.

Piggybacking downlink control information on semi persistent scheduling channels reduces user equipment power consumption and monitoring complexity.

A search space allocation method discards configured search spaces when terminal device monitoring limits are exceeded.

Diagonal filtering of pilot sub-carriers improves channel estimation under high Doppler conditions by reducing noise before interpolation.

Segmented supplemental assignments reduce transmission overhead by dynamically updating resource blocks without full reassignment messages.

User equipment detects beam failure on a secondary cell and transmits recovery requests using ordered procedures.

A user equipment adjusts its reception bandwidth and fine-tunes a local oscillator centre frequency to monitor sub-bandwidths within a multicarrier system.

Semi-persistent configuration allocates uplink resources across separated carrier groups for user equipment transmission.

A control channel mapping method distributes search spaces across multiple component carriers to reduce collision probability.

Configurable control channel resource set groups enable distinct search space and aggregation level configurations for specific usage scenarios.

A base station controller dynamically changes carrier configuration based on neighbor base station information to increase user terminal accommodation.

Segmenting symbol indices and counts reduces signaling overhead while maintaining communication reliability.

A multi-time-segment resource indication method aggregates uplink data from multiple stations into a single PPDU structure.

An optical access point allocates subcarriers to communication devices based on channel state information and signal-to-noise ratio thresholds.

User equipment reuses uplink resources for direct device-to-device communication via half-duplex switching.

A terminal adjusts reference sensitivity thresholds to support dual-connectivity between E-UTRA and NR bands.

Segmenting random access resource pools reduces preamble collisions and system delay while maintaining detection reliability for small packet data.

A base station apparatus arranges random access channel resources within a radio frame based on synchronization signal block locations.

A primary base station selects a new secondary cell and allocates uplink channels to maintain signal quality.

A UE validates Semi-Persistent Scheduling control information by checking the Physical Downlink Control Channel on the primary component carrier.

Terminal device sends indication information to network device upon secondary cell detection.

Dynamic resource block group sizing reduces allocation overhead while maintaining scheduling flexibility across diverse service requirements.

Parameter changes optimize throughput while managing interference between adjacent FDD and TDD carriers.

Network configures time duration patterns and frequency resources for user equipment full duplex operations.

Bit reversal mapping orders data packets across resource blocks, resolving transmission efficiency bottlenecks in wireless networks.

A user equipment determines serving cell type to trigger handover events for secondary cell connection.

A broadcast transmitter adjusts carrier frequency and timing offsets via a single signaling field to prevent pilot superposition.

Dynamic aperiodic tracking reference signal reception via group common physical downlink control channel triggers.

Wireless devices signal support for aperiodic channel state information and sounding reference signals on dormant bandwidth parts.

Null pilots allow user equipment to measure received power on designated time-frequency resources, improving out-of-cluster interference estimation accuracy.

A transmitting device applies continuous precoding across adjacent resource blocks to maintain phase and amplitude continuity during signal transmission.

A base station scheduler divides a frequency band into overlapping segments to assign user equipment and allocate physical resource blocks.

Allocates periodic uplink resources through central and distributed unit coordination to reduce signaling overhead for inactive devices.

FTN-based OFDM transmission method selectively offloads low-contribution subcarriers from broadband traffic to support grant-free sporadic access.

User equipment monitors common and user-specific search spaces across primary and secondary cells for scheduling indications.

Downlink control information triggers specific resource configurations to resolve ambiguity in physical downlink shared channel decoding across multiple slots.

Synchronized multi-band transmission merges frequency channels into a shared digital chain to boost system bandwidth.

Central office device determines upstream signal starting positions via correlation sequences, reducing collisions from variable MAC layer delays.

Wireless numerology designs maintain symbol boundary alignment to resolve timing reference ambiguity when multiplexing diverse service demands.

A network node adapts guard band width between adjacent frequency bands using real-time channel condition data.

A base station allocates resources to user equipment using carrier aggregation without frequency selective scheduling.

Secondary circuitry transmits in problematic bands to reduce intermodulation distortion without increasing device area.

An OFDM interleaving unit alternates predefined rules to change high and low priority subcarrier positions periodically.