Power Management TRIZ Cases

Segmented SRS resource indication in DCI enables simultaneous multi-TRP PUSCH transmission, resolving single-TRP limitations.

RF cable replay modules emulate base stations to extend LPWAN coverage, reducing noise interference and deployment costs.

A terminal determines synchronization signal block timing using reference data from a low-power beacon.

Segmenting macro base station control regions by power level reduces PDSCH interference from PDCCH while preserving spectrum utilization.

A terminal device receives synchronization signal blocks using predetermined timing sequences indicated by a network device.

Aggregating channel capacity and stream ratios into single feedback indicators reduces MIMO link adaptation overhead while maintaining transmission reliability.

Access point beacon module transmits periodic signals to manage client station power states.

Nodes broadcast flooding messages and send negative acknowledgments only upon failure, reducing resource consumption by eliminating unnecessary retransmissions.

A wireless device dynamically selects physical layers to maintain quality of service.

Segmenting the wake-up signal into two parts allows longer DRX cycles while maintaining low latency response capability.

An IoT device communicates directly with a repeater without gateway mediation, switching between terminal and sleep modes to conserve energy.

A transmitting device segments a wireless frame into a high-power legacy preamble and a low-power HEW payload to reduce signal interference.

A wireless resource scheduler allocates transmission capacity using a tunable Jain fairness index to balance user rates.

A distributed proxy adjusts resource polling intervals based on application behavior patterns to optimize network connections.

A wireless device uses flight data to select destination-specific cellular network settings for rapid post-flight reconnection.

A dual SIM dual active user equipment dynamically selects available radio slots to perform data communications while maintaining concurrent voice calls.

A communication device applies selective power water filling to subbands occupied by multiple spatial streams based on channel quality measurements.

Dynamic transmit power adjustment in cognitive radio devices based on licensed user detection.

Dynamic uplink power control adjusts transmission parameters for multiple sounding reference signal resources to optimize spectral efficiency.

Serving gateway user plane allocates a buffer for idle mode packets and notifies the control plane only on the first received packet.

A communication method selects proximate terminals with sufficient battery levels to relay data, reducing user terminal energy consumption.

A base station transmits dynamic indications of physical downlink control channel monitoring locations to user equipment.

Separating high and low priority signals allows applying diversity and spatial multiplexing to optimize reliability and data rate.

An enhanced PS-POLL frame reserves channel duration to allow a station to receive downlink and send uplink data within one transmission opportunity.

Modified BMRF algorithm uses broadcast retransmissions to improve multicast reliability.

A node system selects power saving modes for wireless devices based on mobility and network load.

Dynamic uplink power control based on neighboring cell measurements reduces inter-cell interference while maintaining frequency reuse and resource utilization.

A terminal adjusts operating bandwidth based on system information to perform time and frequency synchronization in wireless networks.

Master device adjusts signal transmission schedules based on processor state to reduce power consumption while maintaining cluster visibility.

A wireless device computes synchronization timing using estimated frequency drift to reduce energy consumption.

Applies preamble structures and DC-balanced sequences to reduce false alarms in limited multipath environments.

Deriving synchronization offsets from detected coordination status eliminates separate procedures, reducing power consumption and processing complexity.

A mobile device power management system segments application operations to identify and restrict specific components consuming excessive battery energy.

Transmitters send power decision pilots to indicate levels, enabling receivers to estimate channel quality and mitigate neighbor base station interference.

Dynamic PLMN scan rate adjustment reduces power consumption and roaming charges by adapting to home or visitor networks.

A user equipment acquires random access configuration from a dormant evolved Node B to perform network reselection procedures.

Dynamic antenna selection reduces power consumption in millimeter wave devices while maintaining data throughput via signal integrity exchange.

HeNBs register and publish configuration changes to an application server using SIP protocols, eliminating hardware sniffing costs.

An adaptive algorithm filters location updates to conserve mobile device battery power.

Neighbor Awareness Network devices select discovery window subsets based on set inclusion to reduce message overhead and improve MAC efficiency.

A terminal device determines transmission modes by calculating power configuration values for LTE and NR technologies.

A multimedia application processor architecture divides processing into independent groups to handle multiple baseband signals simultaneously.

A discontinuous reception operation configures transmission time intervals to suspend mobile terminal receiver activity during non-data periods.

Differentiating non-linear distortion noise from thermal noise enables precise power control adjustments that improve wireless communication throughput.

A deep neural network predicts achievable channel quality using primary cell data, reducing inter-frequency measurement overhead and battery consumption.

Base station transmits beam scheduling information to user equipment, reducing power consumption by limiting downlink control monitoring.

A wall-powered proxy device buffers access point data to eliminate constant listening, reducing battery drain and improving throughput.