Transmission Path Division TRIZ Cases

A pilot block structure using distinct FFT sizes reduces peak-to-average power ratio while maintaining channel estimation accuracy.

A terminal determines transmission direction based on configured or scheduled transmissions to align with actual service requirements.

Segmenting measurement parameters by waveform type reduces beam failure detection times while managing signaling information complexity.

A user equipment decodes downlink control information using cyclic redundancy checks on cell and configured scheduling radio network temporary identifiers.

Configuring PT-RS time and frequency densities based on MCS and bandwidth reduces resource overhead while maintaining phase noise compensation.

Segmenting the channel into resource blocks allows parallel uplink transmission, increasing user capacity in dense WLAN scenarios.

A wireless device configures a secondary serving cell using an adaptive time delay based on active random access transmissions in the primary cell.

A user equipment manages sounding reference signal switching by reporting blanking statistics to a base station for coordinated resource allocation.

Segmenting the 1ms TTI into symbol-based intervals reduces communication latency while maintaining LTE compatibility through dynamic scheduling.

Dynamic voltage switching in a DSL line driver reduces energy consumption by activating high voltage only during high signal peaks.

An evolved NodeB predicts system performance indices for multiple carriers to determine downlink interference coordination parameters.

Optimizes slot selection and transmission strategies to prevent automatic gain control saturation across 5G and LTE radio access technologies.

A user equipment multiplexs uplink control information on a selected physical uplink shared channel transmission occasion.

A terminal control unit adjusts interrupt time values based on source and destination subcarrier spacings to maintain radio link quality during handover.

Signal transmission apparatus overlaps carriers via orthogonal subcarriers, eliminating unused frequency bands and resolving spectrum waste constraints.

A mobile station processes radio resource control messages using a priority management unit to ensure correct handling order.

A user equipment measures positioning reference signals using a subset of bandwidth within an active part.

Terminal device allocates distinct sub-carrier groups for DMRS sequences to resolve orthogonality limits in mixed DFT-S-OFDM and CP-OFDM uplink transmissions.

Network nodes prioritize positioning reference signal measurements based on multipath characteristics to generate location reports.

Configuring a beam switch interruption time parameter accommodates excessive switching delays in high-frequency bands, preventing communication interruptions.

A single IFFT block merges frequency-domain data to resolve circuit complexity in 5G carrier aggregation.

Determines common frequency resources for multicast services using CORESET or bandwidth part locations, reducing terminal power consumption.

A user terminal selects specific resource block group sizes from configured sets to manage downlink and uplink shared channel allocation.

Configuring pre-defined feedback intervals minimizes latency while maintaining communication reliability.

A network device determines available resource elements and arranges them in a K by A matrix structure to facilitate sEPDCCH transmission.

An additional physical channel reuses idle subframe symbols in telecommunications systems to boost downlink bandwidth.

A terminal device selects carriers based on switching information to send data across multiple channels.

Base stations transmit multicast and unicast services using segmented frequency bands within OFDMA transmission bandwidths.

A unified MAC-CE message configures transmission configuration indicators for multiple component carriers, reducing signaling overhead and latency.

A terminal receives separate channel state information configurations for serving and non-serving cells to manage distinct reporting streams.

A terminal sends carrier frequency and sub-band information to a base station for in-device coexistence interference.

Deconvolution constructs channel impulse response to identify the first arriving signal path in OFDM systems.

A multi-frequency electromagnetic coupler module uses a switch network to separate signals into distinct paths.

A base station manages physical downlink control channel blind decodings by applying predefined search space priorities to reduce processing load peaks.

A wireless communication method dynamically allocates subframes between downlink and uplink resources based on traffic load indicators.

Zero padding adjusts DCI formats to limit distinct sizes, reducing device complexity while maintaining data scheduling flexibility.

A network device allocates bandwidth parts to terminal devices using sub-bandwidth part granularity.

A base station transmits downlink control information using an SFI RNTI to indicate slot formats for wireless devices.

Segmenting terminals into groups with dedicated physical channels reduces collision rates and latency in NB-IoT networks.

Adapts interlacing patterns to subcarrier spacing to reduce interference with other wireless protocols while managing resource allocation complexity.

Licensed Assisted Access uplink scheduling uses enhanced node B and user equipment listen before talk procedures to manage unlicensed spectrum access.

Embedded switching intervals in a flexible TDD frame structure prevent uplink-downlink conflicts while maintaining regular symbol spacing alignment.

Segmenting uplink connections by scheduling type resolves bandwidth allocation conflicts while maintaining transmission reliability.

A user terminal measures channel state information using a reference resource in an earlier subframe to support shortened transmission time intervals.

Dynamic TDD configuration signaling conveys adaptation information to user equipment for optimized resource allocation.

Merging search spaces reduces blind decoding attempts and prevents control channel blocking in carrier aggregation systems.

Single front-end amplifier divides signals into multiple processing paths using a negative resistor unit to maintain performance.