Power Management TRIZ Cases

A user equipment skips continuous control channel monitoring based on received indications, reducing power consumption while maintaining scheduling reliability.

A single low-power wake-up receiver activates specific radio modules via OFDM signals, reducing power consumption while maintaining wireless reliability.

Combining NZP and zero-power CSI-RS measurements to lower reference signal overhead while maintaining channel estimation accuracy for multi-user MIMO.

A measuring node adapts uplink measurements using low-activity state configuration information to adjust detection procedures.

A user equipment receives indication information to distinguish subframes within a downlink transmission burst.

Mobile devices forward checkpoint data to a central server for real-time indoor location monitoring.

Discontinuous transmission scheduling reduces base station energy consumption and heat generation while maintaining connection reliability for active terminals.

Non-uniform scanning intervals reduce BLE state transition times, enhancing network responsiveness and battery longevity.

First communication unit executes pre-start-up process on second unit constituents to reduce startup time and power consumption.

A power management system adjusts the shutdown threshold voltage based on real-time battery levels and application requirements.

A wireless terminal maintains network connections using periodic minimal packet transmission during low-power states.

Radio access entities exchange test signals to measure received signal strengths and automatically adjust transmit power levels.

Applying a speed scaling factor to idle mode parameters adjusts cell reselection and paging cycles, reducing battery drain during low mobility.

A radio module self-updates operating parameters using system-specific RF values stored in non-volatile storage to optimize transmit power.

A dedicated data collection integrated circuit continuously captures and locally stores measurement samples from input sensing devices.

A network disconnection mechanism restricts application connections when the screen is off and unpowered.

A gateway dynamically adjusts signal transmission and sensor power settings based on identification information and sensing data.

A mobile processor adjusts active hardware threads and frequency to match base station data rates.

Groups wireless sensor network nodes to apply redundant and MAC layer hibernation, reducing channel detection load and energy consumption.

User equipment acquires downlink control information bits to determine physical downlink control channel monitoring patterns.

A power management system reallocates capacity from lower to higher priority devices within a server group.

A non-AP MLD selects operating modes to balance power consumption with throughput requirements.

Frequency hopping and HARQ reduce access delay and collisions while improving coverage in wireless networks.

Integrating a wireless communication interface module within the flow computer eliminates intermediate gateways and reduces system complexity.

Accelerometers detect user exit from the vehicle to automatically disconnect the wireless link, reducing power consumption.

A method determines maximum transmission power by detecting synchronization states between primary and secondary cells.

Dynamic PSFCH format selection adjusts time-domain resources based on pathloss measurements.

Adjusting uplink transmit power based on access node density reduces interference in dense heterogeneous networks.

A driver component power gates internal display circuitry while cloning video output to an external screen.

An interface circuit negotiates urgent-data criteria to minimize unnecessary radio mode transitions and reduce power consumption.

Base stations enter sleep mode during idle periods to reduce power consumption, resuming operations via beacon signals triggered by user equipment presence.

Electronic devices verify time-averaged specific absorption rate backoff values to determine optimal multi-link operation combinations.

A femtocell access point detects adjacent network signal power and adjusts its own transmission parameters to minimize interference.

A mobile target locator uses an RF receiver to activate GPS and cellular transmission for location updates.

Synchronized networks coordinate sleep schedules to restrict data transmission, reducing battery power consumption while maintaining network performance.

A component sharing control module transitions sub-client modules between states to manage shared antenna and RF subsystem access.

Consolidates uplink power control commands into one downlink message for carrier aggregation systems.

A remote management server collects node energy data to generate centralized power-saving strategies for wireless sensor networks.

An access node adjusts power output using channel quality trends to reduce energy consumption while maintaining signal reliability.

MME manages eDRX paging occasions using absolute clock references to reduce storage duration at evolved Node Bs.

A terminal re-establishes PDCP entities and resumes radio bearers to transmit uplink RRC messages with data in the MAC PDU.

Communication device detects reception power levels to calculate downward adjustment values for packet transmission decisions.

A device collects power values and position information from multiple terminals to calculate specific absorption rate across subareas.

A distributed inter-cell interference coordination model exchanges sub-gradients between base stations to optimize resource block power levels.

Prioritizing Buffer Status Reports over Power Headroom Reports resolves insufficient uplink grants, ensuring accurate network resource scheduling.

Dynamic adjustment of transmit power and packet detection thresholds protects ongoing links while enabling spatial reuse in dense wireless networks.

A switching frame transmits carrier-to-interference ratio and up-down command information at consistent power levels to support terminal mobility.

User equipment cancels source cell uplink transmissions during dual active protocol stack handovers to manage power allocation.