Power Management TRIZ Cases

Segmented reporting mechanisms reduce signaling overhead while enabling self-organizing networks to optimize random access parameters.

Assigns a common control parameter to determine individual transmit power parameters, maximizing aggregate data rate while minimizing total power consumption.

A cell-specific wake-up signal uses Zadoff-Chu sequences to enable targeted node activation via a low-power receiver.

Communication devices adapt discontinuous reception parameters based on network signaling characteristics to conserve battery power.

A PUCCH resource set configures uplink control channel coverage through dynamic power parameter selection.

A wireless signal interference reduction device uses adjustable resistors to control electrical conductivity on data buses.

A user equipment applies panel-specific power control adjust values to individual antenna panels for uplink transmission.

A base station assigns a terminal address and establishes a session with an external server, then transmits data through a second base station using a new address.

Upper node allocates time slots to lower nodes via beacon messages, reducing power consumption by preventing continuous active states during data exchange.

Adaptive inter-cell interference coordination exchanges control messages between base stations to synchronize frequency and time division schemes.

A radio terminal controller receives interference reduction control information on a special downlink channel without an established user data connection.

A user equipment scales down uplink control information transmit power based on priority types across multiple serving cells.

Segmented DRX cycles and mediator eNB coordination resolve control channel reception complexity in inter-eNB carrier aggregation.

A UTRAN monitors uplink power levels before releasing downlink channels to synchronize release timing.

Segmenting PUCCH transmissions into secondary groups reduces primary cell load and supports simultaneous uplink data and control channels.

Merging sidelink and Uu-DRX configurations eliminates latency penalties from misaligned cycles while minimizing unnecessary data buffering.

A mobile power management system predicts user states from sensor data to adjust policies automatically.

A radio communication apparatus adjusts transmission power based on measured reception levels to maintain handset connectivity.

User equipment determines BRS to PBCH power ratios based on port counts, resolving coverage and decoding efficiency trade-offs in 5G systems.

Segmented sidelink control information formats resolve payload expansion trade-offs by supporting Rel 15 enhancements while maintaining Rel 14 compatibility.

A power control apparatus manages aggressor femto user equipment transmission levels to reduce co-channel interference in heterogeneous networks.

Signature waveforms enable user equipment to detect base station channel availability, skip listen-before-talk procedures, and extend battery life.

A scheduler selects between OFDM-MIMO and LFDM-SIMO transmission modes based on real-time power headroom thresholds.

A terminal apparatus selects precoding and random access preambles to establish base station connections.

A transmission unit power supply module adjusts voltage based on input signal bandwidth to optimize amplification efficiency.

A user equipment configures discontinuous monitoring of the physical downlink control channel to reduce power consumption during idle periods.

A cooperative sensing scheme adjusts transmission power based on real-time environmental conditions to optimize spectrum utilization.

Applies local quality frequency allocation across access points to reduce interference, maintaining high throughput in mobile wireless offload systems.

A terminal detects reserved values within MAC PDUs and processes remaining sub-headers and payloads to maintain operational efficiency.

A V2X resource selection method measures received power and total energy across subbands to identify available channels for data transmission.

A wireless communication device adjusts its network search period based on a moving or stationary status indicator.

Mobile station prioritizes high-priority signals over overlapping low-priority traffic to prevent reception failures.

A radio network control element assigns and ranks probing pilots to optimize channel quality feedback for user equipment.

A sliding pilot sub-carrier structure modulates predetermined signals across successive OFDM symbols to enable continuous channel estimation.

A wearable electronic device adjusts display orientation using gaze and motion detection.

Independent harmonic termination circuits optimize power added efficiency and linearity by preventing signal reflections at specific frequency components.

Terminal selects ranging response resources from received power levels to reduce collision and interference in V2X distance measurement.

Adjusts transmit power offsets by codebook size to resolve unbalanced grouping in dual-rm encoding.

A cellular modem disconnects data calls to enter sleep mode while a super capacitor recharges, enabling efficient wireless updates.

A terminal determines synchronization signal transmit power using base station commands.

A synchronous communication device determines its synchronization source or destination role and switches between master and slave wireless modes automatically.

An always-on display changes visual content based on external object detection.

User equipment selectively extends the active period of a discontinuous reception cycle based on serving cell measurements.

Network nodes autonomously modify modulation and coding schemes to resolve power consumption trade-offs during wireless communication.

A communication apparatus reads NFC tag data to determine whether higher power functions require activation.

A PSAPA engine agitates power-saving access points to switch between sleep and active states based on wireless activity levels.