Power Management TRIZ Cases

A primary communication device modifies transmission configuration parameters to adjust data packet delivery.

An uninterruptible power supply in a home appliance switches to battery mode to maintain stability while reducing consumption.

User equipment selects a random access channel group based on measured reference signal received power and maximum transmission power limits.

A mobile network device adjusts discontinuous reception periods based on user equipment velocity to conserve battery energy.

A user equipment enters a dormant mode to suspend data transmission between the device and network.

A security application authenticates push-to-talk software to access hidden device APIs for network traffic prioritization.

Identification bits in frame headers enable stations to detect message types instantly, avoiding unnecessary processing of lengthy discovery messages.

A communication node interleaves multiple transport block slot groups in the time domain to enable independent early termination of receptions.

Dynamic performance adaptation lowers power consumption during line-of-sight ranging while maintaining accuracy in non-line-of-sight conditions.

An LTE access node dynamically modifies power headroom prohibit timers to optimize reporting intervals.

A sidelink wake-up signal waveform enables user equipment to detect scheduled transmissions via physical sidelink channels.

A dual communication module system in logistics containers enables timely data reporting to servers through a low-power wake-up mechanism.

An intercepting user equipment registers with an administrating server to capture communication data in direct mode networks.

A planar meander line antenna minimizes signal attenuation through tire sidewalls, enabling reliable transmission with a single receiving antenna.

User equipment signals availability during measurement windows to enable base station data transmission.

Mobile devices select wireless networks using battery power consumption parameters to optimize energy usage.

A mobile display subsystem adjusts backlight intensity based on application context to reduce energy consumption.

A resource scheduling manager configures computing power resources between communication nodes via request and response messages.

A mobile terminal controller calculates expected call duration during solar charging to display remaining power information.

Dynamic secondary synchronization signal thresholds adapt to correlation peaks, reducing computational complexity and false alarm rates in wireless cell search.

A wake-up radio beacon frame transitions a primary connectivity radio from sleep to active state, resolving coverage detection delays in low-power stations.

Terminals determine wake-up signal monitoring time information from configuration parameters to reduce false wake-ups and power consumption.

A femtocell base station estimates uplink signal quality using autocorrelation metrics to dynamically adjust transmission power levels.

A narrowband IoT uplink transmission method configures modulation and coding schemes with higher modulation orders.

A user equipment configures uplink reference signal resources using an N-comb structure in the frequency domain.

A signal processing device adjusts radio frequency parameters via a proximal end and distal end architecture.

User equipment network analyzers capture metrics to calculate an overshoot index, enabling remote power adjustments that reduce signal interference.

Pre-provisioned credentials enable femtocells to authenticate via bootstrap servers, bypassing manual setup.

Dynamic measurement periodicity adapts to network conditions, reducing user equipment power consumption while maintaining reliable connectivity.

Terminal suspends bandwidth part inactivity timer during random access to prevent data transmission interruption.

Storing session credentials in non-volatile memory allows complete modem power down, resolving continuous energy consumption during low-power intervals.

A wireless fire detection system uses a time division multiple access mesh protocol for deterministic communication.

A communication apparatus uses a low-power Bluetooth Low Energy unit to detect available services before activating a high-power Wi-Fi module.

Adjusting GSM terminal output power with 1dBm calibration steps reduces interference and internal power consumption while maintaining communication coverage.

Assigning differentiated association priority classes to WiFi stations reduces waiting times before connecting to an access point.

Communications devices monitor wireless accessory signal strength to issue timely removal alerts for users.

Configuring monitoring occasions to skip specific symbols reduces power consumption while maintaining wake-up signal reliability.

Radio-frequency switches coordinate baseband processor wake periods to minimize signal collisions, reducing power loss from continuous splitting.

A common uplink burst structure combines signals from coupled and decoupled mode users in time division duplex networks.

Downlink control information carries secondary cell dormancy indications to trigger state transitions between dormant and active modes.

A user equipment assigns redundancy versions across multiple transmission occasions to manage uplink data flow.

Segmenting time windows and applying preliminary action principles reduces communication reliability issues caused by frequent power adjustments.

A wireless information distribution apparatus adjusts transmitted radio wave intensity based on detected environmental data.

User equipment adapts receive antenna count based on positioning reference signal beam width, reducing power consumption by using fewer antennas for wide beams.

A PTMP RF communication method divides beacon periods into slotted and unslotted times for node data transmission.

Wireless devices compare average power consumption criteria across base nodes to select the optimal cell for data transmission.

Demodulation reference signal sequences use device capability-based scrambling identifiers to lower peak-to-average power ratio.

Beacon frame scheduling coordinates station wake/sleep cycles to reduce power consumption while optimizing channel efficiency and minimizing collisions.

A terminal reporting method configures a positioning duration timer to activate location acquisition only during specified intervals.