Power Management TRIZ Cases

Segmenting the application processor from the wireless data network module allows email polling without re-establishing the VPN connection.

A user equipment transitions to an active state when a wake-up signal is missed, ensuring timely data reception.

A user equipment suspends an RRC connection to a specific state, performing cell reselection and transitioning to idle upon detecting a predetermined cell.

User Equipment selects PRACH occasions based on measured Reference Signal Received Power thresholds to optimize random access in unlicensed spectra.

A PHY header group identification field enables early recipient detection in multi-user wireless packets.

WLAN circuits generate mask data to synchronize Bluetooth communications with Target Wake Time sessions.

Splitting digital signal processing between the controller and equipment reduces data redundancy and alleviates traffic congestion on transmission lines.

A base station controller sets discontinuous transmission intervals to stop transmitter operation during specific subframes.

A consumption data recording device switches operating modes using a secondary radio system for flexible control.

A wake-up signal indicates control information presence to user equipment.

Feedback mechanism aligns terminal and network device understanding of antenna panel status, preventing transmission delays from undefined scheduling.

User equipment assistance information enables network nodes to schedule multicast transmissions based on device capabilities.

A configurable wakeup signal monitoring configuration aligns user equipment detection with discontinuous reception on durations.

Signaling data transmission timing relative to secondary station state reduces energy consumption by enabling discontinuous reception modes.

Dynamic panel power state management suppresses energy consumption by powering only necessary communication panels.

Segmenting control information groups with distinct block codes and power levels to secure uniform reception performance at the base station.

A secondary dedicated physical control channel carries transmit power control commands for uplink feedback.

A wireless device determines uplink reference signal transmission success based on downlink reference signal quality and path loss estimation.

A terminal reports channel state information based on configured parameters without monitoring the physical downlink control channel during onduration periods.

Terminal devices shift operation modes based on consecutive activation instruction frame detections, preventing erroneous activations that waste power.

A base station transmits a DMR disable signal using non-standard operational parameters to remotely disable specific mobile radio devices.

Broadcasting DRX update indications adjusts on duration and periodicity, distributing load across user equipment groups to reduce communication delays.

A printer processor selects Bluetooth Low Energy packet formats to enable seamless communication with diverse external devices.

A user equipment allocates hybrid automatic repeat request codebook entries based on component carrier operating states to reduce signaling overhead.

Network nodes transmit usage time and data amount parameters to central nodes.

A vehicular resource allocation method determines transmit power to maximize successful VUE communications.

Common interference patterns enable distributed base stations to perform localized uplink power control and scheduling decisions.

A radio network controller adjusts the number of active digital processing components based on estimated traffic volume.

Aligning Sidelink active times with sensing windows enables reliable resource selection.

A primary wireless access point broadcasts test communications at varying power levels to nearby stations for signal strength feedback.

Adapting cell search intervals via motion detection resolves the contradiction between network reliability and battery life in service-restricted areas.

Dynamic frequency adjustment compensates for in-frame Doppler shifts, enabling reliable IoT terminal activation despite high-speed low earth orbit satellites.

Separate accumulators track scheduled and unscheduled uplink power levels to maintain accuracy despite large interference variations.

Communication devices limit radiation in specific directions based on unintended beam direction information.

A method selects energy-efficient channel coding schemes for user equipment downlink connections based on real-time decision functions.

Dynamic adjustment of WLAN channels or power based on LTE signal thresholds reduces mutual interference without increasing path loss or device complexity.

Enhanced Single Radio detects packet headers to switch medium access control layers between inactive and active modes.

Solar panels harvest ambient light to power a microprocessor that detects motion and transmits occupancy data, eliminating wired connections.

UE capability reporting enables dynamic waveform switching between DFT-s-OFDM and CP-OFDM, resolving ping-pong effects during multi-TRP power adaptation.

A channel assessment tool continuously evaluates RF spectrum using digital signal processors and FPGAs to estimate packet error rates across multiple sub-channels.

Proactive status messaging reduces network signal loading and conserves battery power by eliminating unnecessary connectivity checks.

A user equipment circuitry selects candidate paging occasions based on priority metrics to set power switching patterns.

A positioning information processing method determines measurement and reporting actions based on terminal device conditions.

An energy discharge limiting module adjusts current drain based on real-time temperature sensing to maintain battery specifications.

Separate DTX and DRX configurations reduce energy consumption while maintaining service quality.

Dynamic MAC control element design adapts to multiple power management maximum power reduction values.

A multi-connectivity user equipment disables a second radio access technology when operational states indicate reduced throughput requirements.

A processor monitors battery parameters to identify alternate power sources and generate a power management strategy.

Dynamic sidelink discontinuous reception configuration resolves static parameter limitations by adapting to aperiodic traffic and system load variations.