Signal Allocation TRIZ Cases

A controller prioritizes channel state information feedback reports by classifying them into distinct priority levels to manage transmission scheduling.

Terminal equipment transmits uplink information using time resource sets allocated by network equipment that performs channel contention.

UE monitors PDCCH via combined resource pattern and CORESET indices, reducing signaling overhead during TRP switching.

User equipment determines semi-persistent scheduling beams using downlink control information scheduling offsets and transmission configuration indicator states.

Base station assigns specific frame structures to terminals based on capability data, resolving inefficiencies from fixed uplink allocations.

Network devices send downlink control information to schedule transmissions without overlapping resources, preventing failures and conserving processing power.

A terminal device transmits capability information including layer counts and bandwidth classes to a base station.

Terminal devices receive configuration information to determine target slot format indicators, resolving complexity in managing multiple bandwidth parts.

A cooperative communication method configures available resource information with differentiated values based on predicted base station resource levels.

A rank estimation method approximates eigenvalue ratios using a discriminant test function to determine spatial channel counts.

User equipment transmits a random access preamble on a PRACH resource linked to a candidate reference signal for beam failure recovery.

Segmenting the PRACH preamble with dual scrambling sequences resolves Doppler ambiguities and improves timing estimation in non-terrestrial networks.

Downlink Control Information segments Semi-Persistent Scheduling with dynamic scheduling to reduce overhead and improve transmission efficiency.

A user equipment receives downlink control information containing resource allocation parameters to determine allocated resources in configured sidelink pools.

Mapping downlink reference signals to PRACH resources resolves beam failure resistance issues while improving spectral efficiency.

A shared interface module manages service requests between media and network processors in a gateway device.

Source node updates candidate target cells with delta configurations during preparation to reduce signaling overhead and improve handover reliability.

A multi-layer resource spread multiple access scheme permutes interleaved layers and applies distinct scaling factors to enhance multiplexing efficiency.

Segmenting uplink resources into multiple sets enables dynamic selection based on control channel location relative to allocated data channels.

Session management function coordinates anchor user plane elements to prevent data loss during 5G handovers.

A signal transmission method configures reference signal resources to improve resource flexibility.

Segmenting transmission opportunities into dedicated control and data subframes reduces interference with Wi-Fi networks in unlicensed bands.

A terminal acquires a control channel element index using parameter information to monitor candidate physical downlink control channels.

Called user equipment detects mobile terminating signaling failure within a preset duration and sends prompt information to the called user.

A higher layer processor determines HARQ-ACK feedback timing and PUCCH resources using a subslot structure for ultra-reliable low-latency communications.

User equipment utilizes multiple transmit panels to perform simultaneous uplink transmissions to distinct transmission reception points.

Ground station detects simultaneous aircraft radio transmissions and forwards frequency change instructions to resolve signal interference.

A network device schedules uplink and downlink transmissions within a terminal's channel occupancy duration to optimize spectrum usage.

A base station assigns physical downlink control channel resource blocks starting from the lowest index of a configured coreset.

Bitmap-based control information signals unused uplink grants to reduce resource waste and interference.

A user equipment transmits a downlink traffic query to a base station over an unlicensed frequency spectrum band.

Segmenting frequencies into timing groups reduces inter-frequency measurement duration and power consumption while maintaining coverage.

User equipment generates panel information including capability value sets for multiple antenna panels and sends this data to the network side apparatus.

A network device sends control information to a terminal based on the target network device type during handover.

Configuring distinct Slot Format Indicators with dedicated RNTIs and search spaces for each Distributed Unit in an Integrated Access and Backhaul network.

Segmenting control and data channels with distinct pilots reduces inter-cell interference while maintaining spectral efficiency.

Segmenting control channel resources by time domain length allows Release 14 and 15 terminals to detect resource usage, preventing interference in shared pools.

Dedicated subframes with power boosting and extended TTI bundling resolve limited downlink coverage for low-cost user equipment.

A 5G User Equipment in inactive state receives downlink data through a specific random access message exchange with the base station.

A terminal device applies distinct transmission configuration indicator states for control and data channels to manage common beams across multiple transmission points.

Segmenting control frames into duplicated 20 MHz HE PPDUs extends reliable LPI range while maintaining legacy device compatibility.

Pre-configured uplink beams eliminate random access procedures, reducing latency and signaling overhead during handover.

A server-side apparatus calculates data transmission speed using adaptive sliding windows and speed change gradients.

Allocates low power wide area system information resources based on synchronization signal block patterns to minimize monitoring occasion conflicts.

A user equipment selects an uplink carrier for random access using pilot signals and PRACH parameters.

An access point transmits frames to multiple mobile stations simultaneously using spatial-division multiple access and zero-forcing beamformers.

Interleaved non-contiguous subcarriers maintain single carrier peak-to-average power ratio, expanding uplink coverage beyond deep fading limits.

Search space set group switching adapts physical downlink control channel monitoring patterns to network conditions.