Network Traffic/Resource Management TRIZ Cases

A base station divides a cell frequency band into multiple ranges to support distinct radio interface technologies for flexible resource allocation.

Mobile stations report unlicensed band status to reduce base station load and improve resource efficiency.

A buffer status report poll trigger frame carries extra indications to collect multiple traffic identifiers simultaneously.

Local application of Access Stratum bearer Quality of Service profiles reduces signaling overhead during frequent user handovers.

Terminal establishes dual connectivity between 5G NR and 4G EPS base stations, distributing data flows to reduce E-UTRAN load.

Joining nodes monitor beacon messages to adjust waiting times and reduce channel congestion.

Segmented scheduling reduces latency and enhances spectral efficiency for low-latency 5G applications.

Distributed slave nodes maintain a backup radio operating parameter list to resolve network faults that disrupt secondary spectrum access.

Base stations allocate system information across multiple radio frames using dynamic subframe selection.

SMF entity aligns terminal and network QoS flows using homogeneous SDF-level control rules, preventing packet loss from mapping mismatches.

Pre-configured validity durations balance cell reselection speed against system information accuracy while reducing network signaling overhead.

A communication device receives radio protocol information to control spectrum usage.

Segmenting IMS signaling into dedicated bearers prevents low priority messages from overloading critical paths, reducing latency and jitter for VoLTE services.

An integrated small cell Wi-Fi policy function dynamically adjusts network configurations to optimize resource utilization.

A method schedules duplicated data across distinct carriers to enhance frequency diversity.

A resource deployment optimizer allocates satellite beams and frequencies using linear programming.

A terminal device configures uplink pilot time slots to transmit sounding reference signals and physical uplink shared channels.

Dynamic codec rate adaptation enhances voice quality by adjusting bitrates to available radio bandwidth, reducing signaling overhead.

A base station allocates frequency resources to user equipment based on device capabilities.

Information processing apparatus exchanges capability and radio propagation measurement data to control stream transmission rates.

A base station reserves distinct resource regions within a single carrier to schedule data channels using different transmission time intervals.

User equipment segments capability information based on network buffer limits, preventing attach failures and call drops caused by message processing errors.

A modified RA-RNTI calculation incorporates the first radio frame index to generate distinct identifiers for user equipment.

A PDCP entity reconfigures parameters during bearer type transitions to maintain continuous data transmission.

A method switches data paths between primary and secondary nodes to establish a direct user plane path.

Recursive segmentation and error computation resolve labor-intensive measurement challenges for varying motion patterns.

Periodic sampling of link state information reduces signaling overhead while maintaining accuracy for admission control decisions.

Variable coding rates adjust signal quality while keeping transmission power constant, reducing peak-to-average power ratio variation in uplink multiplexing.

Network coding generates RLC parity PDUs to reduce buffer size while maintaining data transmission reliability.

A communication control part adjusts signal transmission rates between paths to manage traffic flow.

Policy and Charging Rules Function nodes exchange resource type data to predict service needs, reducing signaling overhead from frequent bearer modifications.

A user equipment prioritizes data traffic processing over measurement procedures during configured gaps.

User equipment autonomously remaps logical channels onto transport channels to enable rapid reconfiguration without external intervention.

A control device configures network-slice-specific licensed assisted access parameters to manage unlicensed spectrum usage.

Segmenting sidelink scheduling requests from uplink protocols resolves the trade-off between dedicated resource efficiency and signaling complexity.

A base transmit antenna generates a reference signal used by subordinating antennas via unique cyclic shifts to support multiple input output transmission.

A terminal in a disconnected state actively reports its current coverage class to an access network device.

Base station shares random access channel preambles for paging responses, reducing system overhead while maintaining operational reliability.

Modifying IEEE 802.15.4 frame control bits supports anonymous and broadcast transmissions, reducing message overhead in lighting device networks.

Providers rotate resource allocation duties across dedicated spectrum slices, eliminating the need for multiple receiver chains in vehicle modules.

Adaptation layer nodes compress packet headers using the Robust Header Compression framework, improving spectrum efficiency for small backhaul packets.

Mobility management nodes calculate effective load using APN capacity allocation to select optimal gateway nodes.

A positioning system aggregates neighbor cell data across diverse networks to enhance location precision.

Decouples service life cycle from network slice management by delaying resource activation until provisioning, resolving underutilization during high load.

Dynamic routing of uplink resource allocation requests by user equipment optimizes transmission bandwidth while minimizing interference and power constraints.

A transport block size calculation method uses a direct equation to resolve cyclic dependencies and reduce computational complexity.

A relay node measures channel status using downlink reference signals and transmits differential values to a base station.

A traffic counting method categorizes network data flows by slice type, data network name, and access network for precise usage tracking.

Base station manages MU-MIMO resources using RTS-CTS handshake and A-MPDU aggregation to reduce contention overhead.

A cell load assessment mechanism evaluates resource availability against UE traffic profiles to enable attachment only when service guarantees are feasible.