Power Management TRIZ Cases

A radio access network node collects performance data from connected user equipment to decide whether idle mode devices should switch to a second radio access technology.

Network nodes send dynamic closed loop power control reset indications to user equipment via MAC-CE or DCI messages.

A radio communication apparatus dynamically adjusts advertising frequency bands to optimize power consumption.

A terminal controls sounding reference signal transmission power using network-provided parameters when direct path loss measurement fails.

Early decoding allows a receiver to enter a low-power mode when signals are successfully decoded, reducing unnecessary reception during good channel conditions.

Wireless user equipment enters low-power states between video frame bursts to reduce energy consumption.

Cloud-based electronic tilt adjustment resolves sub-optimal network coverage and radio interference without deploying additional base stations.

Configures discontinuous transmission periods at user equipment to enable continuous packet connectivity alongside dedicated channel enhancements.

Programmable devices form a secure ad-hoc network using encoded identifiers and short-range transceivers.

A first user equipment measures received signal power and processes transmission power information to calculate path loss for proximity determination.

A power draw throttle mechanism segments OCP thresholds across multiple timescales to manage real-time input power.

A display driver integrated circuit acquires content elements and their meanings to determine target information for always-on display.

Segmenting the receiver into a low-power listening unit and main body resolves energy consumption versus data transfer capability.

Dynamic power back-off operations mitigate row noise in captured images by lowering transmission energy during sensor usage periods.

Segmenting ray scanning from beam searching reduces time delay in millimeter wave systems by narrowing the search space.

Full duplex radio devices cancel intra-device interference by dynamically adjusting nonlinear digital cancellation orders based on transmit power variations.

Earphones predict battery life and switch master-slave roles to balance power consumption when one device depletes faster.

Base station transmits PDCCH within overlapped time domain intervals between DTX and C-DRX cycles to ensure timely data retransmissions.

A communication control apparatus detects devices in non-terrestrial cells to manage terrestrial base station states.

An over-the-air communications unit enables femtocells to self-provision and coordinate interference management without manual operator intervention.

Configuring different ON durations for short and long DRX cycles reduces battery consumption during low-probability downlink transmissions.

A user equipment manages transmit power by pausing 5G NR transmissions when combined LTE and NR power exceeds a regulatory threshold.

A machine type communication device selects a coverage enhancement level by measuring downlink signal path loss before transmission.

Segmenting full duplex capability reporting by transmission power resolves self-interference trade-offs and improves coverage efficiency.

Predicting energy storage state enables data transfer during charging, preventing depletion that reduces vehicle range.

Bluetooth intermediary scans frequency band to detect access points, reducing power consumption by avoiding unnecessary Wi-Fi activation.

A gateway device synchronizes its power schedule with a connected wireless extender to coordinate radio transceiver activation.

A communication device receives network configurations for special symbols containing downlink and uplink sub-bands to manage signal operations.

User equipment determines actual time-domain windows for demodulation reference signal bundling to maintain power consistency across physical uplink control channel transmissions.

A mobile station aligns WiMAX sleep windows with CDMA paging intervals using enhanced MOB_SLP messages.

A base station control apparatus generates deployment patterns and transmission power combinations to balance terminal connections across existing and movable base stations.

Dynamic selection of sidelink feedback resources by received signal power resolves the trade-off between transmission reliability and device complexity.

A resource scheduling method divides time-frequency ranges into pre-scheduling and dynamic segments to minimize unnecessary control signaling detection.

User equipment derives pathloss values from multiple references to calculate changes and trigger power headroom reports only when the change exceeds a threshold.

Dynamic spectrum sharing reallocates frequency resources between mobile operators, balancing network capacity and energy efficiency targets.

A user equipment determines uplink transmit power limits based on computed transmission periods within time windows.

A secondary network equipment adjusts transmission parameters based on measured attenuation coefficients to share spectrum resources.

A state control method coordinates power states across hybrid system architectures to reduce energy consumption during cooperative operation.

Relay access nodes select donors by boosting reference signal power to improve channel estimation accuracy and service quality.

Electronic device monitors target WiFi transmission rates to selectively disconnect underperforming networks and reduce energy consumption.

A terminal device transmits power headroom values for multiple uplink transmission configurations to enable accurate power control.

A mobile radio terminal device detects human body proximity to antennas and reports reduced transmission power status to the network.

A candidate beam detection mechanism determines an evaluation period using a uniformed scaling factor and base period derived from the DRX cycle length.

A wireless receiver controller switches between high and low power modes based on signal detection status to optimize energy usage.

A dynamic measurement reporting scheme adjusts intervals based on user equipment conditions to conserve processing and transmission power.

Distributed Unit transmitter control system identifies scheduling gaps to power off hardware, reducing energy consumption in O-RAN fronthaul interfaces.

Transmitting sounding reference signals during inactive durations updates stale channel measurements, reducing latency and improving reliability.

A User Equipment adapts Physical Downlink Control Channel monitoring by skipping periods on specific cells to reduce power consumption.

A power management mechanism overrides network timeouts to force a wireless radio module into a dormant state after data transmission.

A terminal switches between legacy and variable random access preambles to optimize resource allocation in narrowband IoT networks.

A hybrid interference coordination technique optimizes frequency reuse factors and transmit power levels across wireless cells.

A grant-free uplink transmission mechanism applies transmit power offsets based on configured grants and received network power levels.

Segmentation separates RAN and CN paging channels so only paged UEs monitor specific signals, eliminating wasteful idle-mode channel checks.

Adaptive link grouping organizes wireless connections by channel gain to streamline distributed scheduling decisions.

An energy-efficient base station reduces interference and power usage by entering a sleep mode when no authorized users are present.

Processor de-keys transmitter during idle timeslots to save up to 41% power while maintaining synchronization.

Configurable measurement procedures adapt discovery reference signal detection to enhance cell association accuracy.

A user equipment spreads reference signals with orthogonal sequences to generate multiple pilot and data sequences for wireless transmission.

A convolutional modulation scheme inserts zero coefficients between input sequence elements to generate output sequences with reduced peak power.

A network selection method estimates average energy efficiency to serve users on compatible networks.

User equipment maintains consistent power and phase across multiple slots during uplink frequency hopping transmissions.

A communication apparatus acquires WUR discovery element information to determine the wake-up radio channel.

Base stations determine beam correspondence relationships to eliminate time-consuming user equipment beam sweeping, improving positioning efficiency.

A resource allocation management device estimates wireless base station coverage using user equipment timing advance and power headroom information.

Acoustic telemetry units harvest receiver signals to charge energy storage modules, enabling flexible data transmission without additional topside equipment.

A communication system dynamically allocates transmission power and capacity across multiple channels using stochastic optimization of resource distribution.

An end of burst indication triggers user equipment transition to a low energy state during discontinuous communication phases.

A hybrid network system uses intermittent cellular links and low-power wireless mesh connections to manage data transmission.

A mobile wireless interconnection device detects interference between uplink and downlink channels to maintain seamless internet access.

A mobile terminal consolidates charging queue and time data from multiple devices to reduce monitoring complexity.

Endpoint units schedule actions via Count Until Action fields, reducing power consumption and latency.

A multi-link device coordinates multiple access points using frame elements to establish trigger-enabled service periods.

A Manchester encoded wake-up radio generates MOOK data to trigger receivers, reducing power consumption by 50x while maintaining fast wake-up times.

A gNodeB dynamically adjusts 4G LTE reference signal power levels to extend coverage area.

Wireless device calculates effective path loss using weighted measurements from multiple nodes to adjust uplink transmit power.

Differential power allocation for resource blocks experiencing macro interference improves SINR and reduces spectral waste in LTE networks.

Configures distinct active states for primary and secondary cells to enable discontinuous reception across diverse time division duplex subframes.

A detection unit sends a trigger signal upon power status changes to activate the RF module for immediate network search.

A control device adjusts transmit power levels based on access grant status and collision feedback to optimize channel usage.

Automated wireless access device power switching based on operating parameters.

Mobile devices use peer-reported pathloss to set initial transmit power, reducing random access collisions and noise.

Separating timeslot definition from periodic beacons reduces receiver operation time and power consumption in wireless sensor networks.

A battery management system records previous trickle charging times to prompt users for regular maintenance cycles.

A bicycle control device adjusts message transmission rates to balance communication speed and energy consumption.

A user equipment state transitioning regime maintains intermediate radio states to enable rapid session initiation.

Dynamic adjustment of uplink power control factors on secondary cells distributes PUCCH traffic, reducing primary cell load and improving network capacity.

A Bluetooth sniff mode controller detects packet counts exceeding a threshold to trigger switching.

Physical layer group signaling informs user equipment about upcoming data transmissions to enable accurate DRX sleep mode entry.

Slot counters and channel quality metrics guide blind detection, reducing processing power and extending battery life.

User Equipment determines Sounding Reference Signal transmission power using pre-configured parameters during Radio Resource Control inactive periods.

A sidelink power control mechanism adjusts transmit parameters to manage power spectral density distribution across unlicensed spectrum channels.

Periodic monitoring of bundled control channels reduces power consumption while maintaining coverage reliability for low-rate devices.

A terminal selects sidelink resources via partial sensing to balance power consumption and collision risk.