Network Planning TRIZ Cases

A Spectrum-as-a-Service system dynamically allocates wireless resources to match real-time demand.

A wireless communication system detects new cells and preferentially registers them in neighbor cell lists to maintain handover reliability.

Priority-based coordinated access scheme reduces transmission latency for time-critical data by allowing simultaneous transmissions without prior reservations.

User terminals measure radio wave power and communication speed against installation reference data to detect transmission delays without adding hardware.

Access points coordinate fractional frequency reuse modes with stations to allocate orthogonal bands, reducing co-channel interference in dense networks.

A wireless base station uses adaptive sectoring to dynamically shape coverage areas via beamforming patterns across multiple antenna subsets.

Radio network nodes transmit paging messages using progressively narrower beam patterns to target user equipment in non-terrestrial networks.

Terminal control section determines physical random access channel resources accompanied by same beam to improve coverage in random access procedure.

Centralized AFC database manages service provider data to enforce regulatory compliance and mitigate interference in 6 GHz networks.

Terminal devices determine uplink transmission starting positions using carrier numerology information received from network devices.

A terminal determines channel access procedures based on base station information to optimize communication efficiency.

User equipment initiates channel access when a network entity fails to detect the medium, allowing shared occupancy of the unlicensed frequency band.

Mobile radio terminals acquire and forward network parameters directly to centralized analysis units without external devices.

A network node scans WLAN beacon signals to determine communication activity rates for selecting radio resources in unlicensed bands.

A multi-network manager coordinates wireless resource schedules to resolve interference between overlapping industrial networks.

A central node triggers in-band spectrum sensing when channel quality declines, reducing power consumption.

Automated collision risk assessment prevents uncontrolled radio interference by registering transmitter parameters and executing release or blocking procedures.

Segmenting RAN into modular RTF and non-RTF components reduces deployment costs while maintaining system stability.

Centralized analysis of real-time load metrics optimizes neighbor relations, reducing PCI conflicts and handover failures.

A base station dynamically reconfigures paging parameters to mitigate interference with radar systems.

Assigns physical cell identifiers to radio cells using calculated overlap scores derived from handover likelihood data.

Baseband units dynamically allocate L1 processing resources across logical cells, reducing waste from fixed physical cell mappings.

Flexible uplink transmission start positions reduce scheduling delays caused by Listen-Before-Talk channel availability checks.

Terminal determines uplink frequency domain resources based on physical random access channel parameters for flexible selection.

Segmented remote radio units maintain strong signals and extend cell stay time for high-speed trains.

Base station coordinates terminal channel assessment timing via uplink grants to reduce power consumption and increase preemption probability.

A network device selects narrow beam handover candidates using geometric relationships and historical data to guide user equipment.

A base station transmits permission signals with timing offsets to coordinate uplink data transmission in shared unlicensed bands.