Power Management TRIZ Cases

Real-time transmit power adjustment maximizes sum SINR by dynamically balancing coverage against inter-cell interference based on live network loading.

A wireless receiver selects processing routines of differing sensitivities based on estimated signal quality values.

Dynamic transmit power step sizes adapt to command trends, resolving fixed-rate inefficiencies in wireless links.

A user equipment cancels serving signals to isolate interference demodulation reference signals for detection.

A processing node adjusts handover thresholds to prevent wireless devices from attaching to access nodes lacking uplink split mode capability.

A smart friend cache request message directs mesh nodes to maintain critical element addresses during low power states.

A radio receiver adjusts its ready state entry time using connection-event packet arrival data to compensate for clock drift.

A base station configures power-saving signal parameters dynamically for each Bandwidth Portion to optimize terminal monitoring.

Time slot relaying extends transmission range while minimizing power consumption in low energy critical infrastructure monitoring networks.

A mobile station transmits state transition requests via common channels outside intermittent periods.

A communication system adjusts data transmission rates based on available output power from energy harvesting sources.

Segmenting terminals into dynamic groups via variable-length frames reduces power consumption while maintaining communication reliability in dense networks.

Pre-detected victim-aggressor relationships enable targeted reference signal transmission, reducing detection latency and cross-interference overhead.

A wireless device segments resource elements to allocate distinct transmission power levels for demodulation reference signals.

A luminaire controller dynamically isolates power interfaces to reduce standby energy consumption while maintaining wireless command reception.

A wireless mesh network where door lock nodes advertise availability and switch roles to balance battery life with message delivery latency.

A display device manages power states via Bluetooth Low Energy identification to reduce energy usage.

Electronic device scans alternative radio access technologies during idle periods to enable seamless network switching.

Providing detailed rejection reasons for SCG mode changes reduces power consumption and minimizes delays.

A computing device selects a nearby relay node to forward voice, video, or message traffic when its own cellular signal drops below a threshold.

A keep-awake message extends the on-period of user equipment to manage power consumption.

Nodes exchange energy metrics via signaling to resolve conflicting autonomous decisions that waste network power.

A wireless communication device requests downlink transmission power adjustments from a network node based on detected interference levels.

Cyclically activating segmented temperature transducers reduces power consumption during screen wake-up.

User equipment devices measure signal quality against thresholds to skip unnecessary PBCH decoding, reducing power consumption during MIB acquisition.

Communication device powers off unused antenna panels during measurement operations to optimize energy usage.

Base station creates an interference information indicator table to guide mobile stations toward low-interference frequency bands.

Wireless devices adjust ADC resolution and antenna configurations via dynamic power categories to reduce energy consumption during low traffic.

A base station reduces power consumption by entering a low power-consumption mode and transmitting a beacon signal for wake-up.

A communications device controller configures a transceiver to enter a reduced power state during a specified delay period.

Base station determines target power allocation ratios per carrier based on individual capabilities and channel conditions.

A broadcasting device transmits positional data to communication terminals for location tracking.

A Node B receives maximum UE transmitter power to schedule uplink packet transmission.

Strategic resource allocation trains antenna beams before data transmission, reducing latency and signal attenuation in 5G networks.

Segmented downlink and uplink protocols enable simultaneous block acknowledgments, resolving data throughput limits in MU-MIMO systems.

Piggybacking wake-up radio payloads onto standard transmissions reduces network congestion and extends battery life for IoT devices.

Iterative tone-based power allocation reduces interhub interference while maintaining low computational complexity and fast convergence speeds.

Segmenting the transceiver isolates the radar detector from high-power transmission, enabling reliable detection during 100 percent duty factor operation.

Adaptive pilot power transmission maintains constant reselection ranges around home evolved NodeBs.

An Outage-Based OLPC method calculates a target signal-to-interference ratio using outage probability and block error rate components to accelerate initial convergence.

Tapped capacitor decoupling enables indirect power regulation without directional couplers, reducing component count and current draw.

A network node adjusts paging message code rate and transmit power based on device location in the sequence to ensure reliable delivery.

Network node reshapes streaming and non-time-critical sessions into synchronized burst sequences to extend common silent periods, reducing UE power consumption.

Calculates application service energy consumption by aggregating data from specific network producers.

MTC-IWF routes machine-type communication triggers through dynamic network paths to prevent discard and reduce battery consumption.

A coexistence manager yields interfering resources from active radios to idle ones for signal reception.

A remote cloud-based management system transfers firmware and configuration data to low data rate RF modules using Bluetooth Low Energy.

A mobile communication device predicts future reception levels to manage its transmission circuit operation.

Master device coordinates access points to switch off fronthaul networks when stations are absent, reducing energy consumption and electromagnetic radiation.