Power Management TRIZ Cases

A base station allocates higher power to demodulation reference signals than PDSCH data in superposition transmission.

Terminal mobility state reporting enables dynamic network scheduling adjustments in LoRa networks.

Adaptive systems dynamically adjust power levels, EDCA backoff times, and channel allocation to mitigate LTE interference on shared hardware.

A detection apparatus segments application power usage by individual function device identifiers to generate precise consumption indices.

A wireless router identifies power-sensitive sensors and provides separate low-power connections.

Wireless terminals aggregate suppressed measurement reports and transmit them during allowed periods to maintain network optimization.

Segmenting DRX start offsets enables independent timer alignment for long and short cycles, resolving subframe mismatch errors in LTE networks.

A sensor attitude determination method measures initial movement vectors to align coordinate systems before navigation begins.

A self-powered network energy management system acquires observation data and transfers global neural network parameters to optimize dispatch.

Terminal device receives configuration information indicating multiple modification periods to determine service-specific monitoring intervals.

Segmenting random access procedures with unique timing offsets resolves large delay contradictions in non-terrestrial networks.

A transmitter and receiver system uses time interval modulation to transmit radio frames with specific identifiers for accurate device control.

A control circuit manages clock transitions on an audio bus to preserve the active stream.

A wireless terminal processor manages dual-mode communication connections between external devices to establish data links efficiently.

A dc-dc converter applies discrete voltage levels to track envelope signals in RF power amplifiers.

Subscriber identification modules synchronize suspension and access times, reducing network congestion from unnecessary polling messages.

A crest factor reduction core employs a digital filter to process input signals.

A wireless communication apparatus adjusts digital signal bit depth based on channel quality to reduce power consumption.

A CF-End indication embedded in MAC headers or HE SIG-A fields cancels NAV protected time within existing frames.

Wireless devices define independent channel hopping schedules with customizable sleep intervals to conserve energy without external synchronization.

A base station method manages UE transmission power during soft handover by combining SIR measurements from multiple cells to adjust control instructions.

A linear computation method determines transmit power limits for coherent transmissions using scaling factors to ensure RF exposure compliance.

Aligning DRx OFF states with PRS occasions eliminates measurement gaps, reducing power consumption and improving network throughput.

A mobile device reports in-device coexistence interference to the network, which applies time-domain or frequency-domain scheduling adjustments.

A portable accessory with an inductive signal amplifying circuit and capacitive coupling enhances radio wave transmission.

A predictive wake-up method activates baseband circuitry before data payload arrival to minimize processing latency.

Terminal device manages DRX-onDuration timer start times during bandwidth part switching using wake-up signal monitoring results.

Dynamic BWP switching and PDCCH skipping lower power usage while maintaining connection reliability.

Dynamic measurement gap control links gap availability to secondary cell states, preventing interrupts and packet drops while maintaining system reliability.

Mobile terminal reports power headroom by subtracting simultaneous PUSCH and PUCCH transmit power from maximum UE transmit power in a subframe.

User equipment transmits channel feedback on dedicated resources before downlink data transmissions in cellular IoT systems.

A base station adjusts discontinuous reception cycles to meet guaranteed bit rates.

Receiving devices perform automatic gain control on the first sidelink symbol to enable coherent demodulation of subsequent data.

Standardizes power classes for FR2 bands to reduce signaling complexity while maintaining transmission efficiency.

A communication device selects transmission parameters from pre-computed probability tables to optimize data delivery.

Beam sweeping directs paging signals toward terminals to overcome high path loss at high frequency bands and enhance receiving reliability.

A terminal selects wideband or narrowband transmission modes based on network resource conditions and capability information.

Electronic device determines always-on display mode from status data, resolving the trade-off between visual richness and energy usage.

Segmenting SRS resource set parameters reduces UE processing complexity while maintaining network configuration flexibility.

A coordinating controller adjusts average transmission power across multiple radio sources using inner control loop feedback.

A primary smart device proxies network procedures for linked secondary devices via proximity interfaces.

Nodes monitor neighboring activity to balance connectivity against energy consumption, preventing transmission loss.

Terminal devices send first information using at least two transport blocks to enable joint decoding by network devices.

Wireless stations negotiate peer-to-peer schedules with finer time slot increments to resolve latency and power consumption trade-offs.

Monitoring specific signal levels triggers dynamic mixer switching to reduce average power consumption during rare blocking events.

A signal processing method determines specific resources for second user equipment messages to reduce power consumption.

A terminal manages random access across multiple serving cells using adaptive transmit power and listen-before-talk procedures.

A power management system adjusts location sampling rates through dynamic scheduling to optimize mobile device energy usage.

A wireless power transmitter controller adjusts phase and amplitude across multiple antennas to direct energy precisely.

Inverse fast Fourier transform processing distributes spectrum energy across frequencies, reducing waveform distortion from frequency selective fading.