Power Management TRIZ Cases

Dynamic band switching between 60GHz and lower frequencies resolves the trade-off between high data processing rates and extended communication distance.

Mobile Stations request dynamic paging cycle changes via ranging messages, balancing power consumption against response time without mode transitions.

User equipment calculates transmission power from sidelink and uplink pathloss to manage interference signals while reporting power headroom.

Higher layer signaling delivers power offset information enabling user equipment to detect and suppress intra-cell interference from co-scheduled transmissions.

Autonomous SCell activation reduces unnecessary PDCCH monitoring during DRX cycles.

A sidelink terminal selects a destination address based on logical channel priority and discontinuous reception parameters.

A server-equipped sleeve attaches to mobile devices to provide secure computational environments and remote attestation capabilities.

Power Watcher algorithm predicts daily power usage to prevent threshold exceedances, eliminating manual adjustments and ensuring regulatory compliance.

A terminal device configures a detection time window through network signaling to perform object detection and adjust transmit power levels.

A framer uses serial comparators to search frame alignment words, reducing gate count and chip area.

Amplify-and-forward cell-free networks minimize transmit power through joint beamforming and precoding matrices.

A processing element analyzes control channels to detect scheduled subframes and transitions between high-power and low-power receivers.

A WUR station synchronizes its channel contention waiting time with legacy stations after sending a wake-up packet.

A vehicle remote control key system retransmits radio frequency signals via nearby vehicles to extend reception distance.

Terminal feedback enables base station phase adjustment, resolving synchronization gaps and boosting coherent combining gain.

A common sidelink discontinuous reception configuration aligns user equipment on-durations to enable reliable broadcast signal reception.

Dynamic power allocation across a split mode antenna array supports simultaneous 4G and 5G protocols, reducing equipment redundancy and power consumption.

A terminal adjusts its signal energy assessment period based on change speed to determine network strength.

A wireless communication device shares reconnection timing information before disconnection to manage power supply cycles effectively.

A control device manages Bluetooth low energy connections by receiving advertising messages and transmitting write requests for pairing state information.

User equipment transmits MAC control element communications to signal power class changes.

A terminal open-loop power controller adjusts amplifier gain to increase transmission signal strength.

A monitoring station uses multiple RF receivers with unique timing offsets to capture overlapping wireless packets simultaneously.

Dynamic switching between big and little operating systems optimizes power usage by disabling unused hardware during low-load periods.

A radio access network allocates forward traffic channels to mobile stations and monitors reverse link signals for reception failures during active calls.

Access point transmits CTS-to-self frames to limit non-compliant device interference during IEEE 802.11ax target wake time operations.

Multiple feedback loops and adaptive linearization reduce settling time while maintaining signal linearity during power transitions.

Shared memory and processor time-division multiplexing reduces power consumption while maintaining communication reliability.

Discovery signal muting patterns schedule transmissions in interference-free subframes to reduce acquisition time.

Local timer values enable electronic devices to enter power saving mode while maintaining network registration through periodic tracking area updates.

Control device detects external radio signals and emits interference waves to shield aircraft cabins from incoming transmissions.

Base station identifies LTE user mobility by analyzing Remote Radio Unit positional data ratios from uplink messages.

A wireless access point determines resource block restrictions for repeaters to manage frequency usage.

Segmenting the DRX sleep window into wakeup slots captures delayed transport blocks, reducing latency while conserving UE power.

Mapping power control data to allocated channel fields reduces communication overhead while maintaining accurate transmission adjustments.

A mobile device combines inertial sensor data from co-located wearables to infer pedestrian movement parameters.

Segmenting network channels into broadcast and service types reduces power consumption while maintaining high-rate data support.

A closed loop power control index maps TPC commands to specific loops in DCI.

A soft access point adjusts beacon intervals to reduce power consumption while maintaining an active WLAN link.

A power headroom reporting mechanism tracks available transmission power for uplink control channel resources across component carriers.

A base station apparatus determines downlink traffic correlation to optimize RF power settings dynamically.

Low cost machine type communication user equipment adjusts channel quality indicator values to influence base station scheduling decisions.

A dynamic service registry system updates VM registrations via a Virtual Machine Monitor to maintain accurate network state.

Dynamic threshold adjustment reduces false detections from environmental disruptions, lowering energy consumption and improving communication reliability.

A terminal uses human body communication to transmit electromagnetic signals for screen state switching.

A mobile station calculates sector border distance to select a scanning algorithm, reducing battery consumption during neighbor sector searches.

A base station allocates reduced and expanded radio resources to an electronic device using RRC reconfiguration messages.

Network equipment measures uplink reference signals to locate terminals, reducing device power consumption and control signaling overhead during mobility.