Energy Efficient ICT TRIZ Cases

A control module adjusts peripheral power supply arrangements using sensor signals and threshold comparisons to determine device situation modes.

An access network layer intercepts messages and generates packets so an access point hosts the transport protocol stack, reducing station power consumption.

A filtering zone based on R-G and B-G color difference information determines color temperature for accurate display.

A packet processing device adjusts its internal processing capacity based on real-time link utilization to reduce energy consumption.

A switching device connects a connector port to either a detection pin or a 1-wire pin based on peripheral type.

Multiple touch zones enable multi-finger gestures while periodic sensor sampling reduces power consumption in low-profile designs.

A BIOS and embedded controller mechanism sets flags in physical memory to notify the controller for power management actions.

A controller synchronizes a secondary receiver duty cycle with a primary transceiver discontinuous reception pattern to conserve battery power.

Dynamic graphics processor switching optimizes battery life by resolving the tradeoff between processing power and energy consumption during operation.

A magnetic device adjusts transmit characteristics based on measured operating parameters to maintain link integrity.

Pre-skewing data elements before transmission staggers transitions, reducing simultaneous switching noise while maintaining high data rates.

Merging storage access and processor selection into one controller reduces hardware elements while maintaining dual-processor sharing.

Controller node distributes OAM tool modules to datapath nodes, eliminating individual node programming complexity.

A virtual router network aggregates packet filtering information across edge nodes to enable per-flow traffic delay measurement.

A solid state drive pages out logical-to-physical table segments to NAND memory during idle periods.

A wake-up mechanism transmits signals through traditional SDIO data terminals to switch the device between operation modes.

A clock ratio controller adjusts digital system frequencies using alignment detection and strobe signals to maintain circuit synchronization.

RC circuit detects return voltage across signal pairs to trigger power shutdown and bleed excess energy via Zener diode.

An auto-learning scheme classifies data streams using Bayesian methods to identify group patterns.

A storage server tracks disk usage levels to compute I/O costs and enforce precise workload limits across shared resources.

Segmented memory pools allow hardware to process time-critical data independently, reducing software interrupt overhead and system latency.

A bandwidth monitor tracks link utilization to trigger a LAG adjuster for dynamic power state transitions.

A substitute idle task replaces the standard idle routine to drive a processor into a low-latency dormant state for immediate interrupt servicing.

A clock generating device tunes output frequency via a tuning module linked to CPU voltage identification signals.

A task switcher migrates workloads between processor cores with different instruction sets to optimize execution paths.

Assigns energy classes to packets based on header fields, enabling devices to defer low-priority traffic to lower energy modes.

A mobile device management system prioritizes applications to conserve battery power.

A receiver mechanism estimates available bit rates using packet delay jitter and arrival data to dynamically adjust sender transmission speeds.

A wireless adapter exchanges device information without signal wires.

A hybrid beamforming system segments users into zero-forcing and random groups to optimize signal-to-interference-plus-noise ratio calculations.

A hard drive loads its operating system into external memory to cut power completely during idle periods.

Segmenting centralized quota enforcement into distributed local units eliminates synchronization complexity while maintaining accurate storage limits.

A GPS transceiver adjusts transmission frequency based on detected movement to conserve battery power.

Memory circuit adjusts operational pipeline stages based on timing margin feedback signals to optimize performance across varying operating points.

A self-tuned threading model adjusts thread pool size using a priority queue to manage concurrent requests.

Segmenting the MAC chip allows power reduction over 50% while keeping the transceiver active for immediate network restoration.

Allocation groups let the file system power down idle disks, reducing energy consumption while maintaining I/O load balance.

A DSL modem power source circuit uses a boosting converter and storage capacitor to manage voltage levels.

A User Equipment method controls MBMS service access information acquisition through state-based procedures and probabilistic checks.

A multi-core CPU power control system estimates next-interval usage and calibrates it against system information to select an optimal power mode.

Snooping OS timer registers triggers early unit activation, reducing wake-up latency while maintaining deep low-power states.

Segments centralized cloud resources into distributed edge instances to reduce user response time and improve service continuity.

A peripheral power management component dynamically sets device states using adaptive schemas based on observed usage patterns.

A bus arbiter assigns request priorities based on memory channel power states to optimize access scheduling.

A virtual machine monitor adjusts processor clock rates and resource allocation based on real-time utilization metrics.

Adjusting SDIO bus frequency based on application throughput requirements reduces energy waste and extends battery life.

A hardware scheduler performs instruction-by-instruction thread execution to optimize processing efficiency in multi-processing systems.

Remote discovery registers coordinate physical media interface aggregation via ITU-T G.994.1 handshaking, preventing allocation conflicts while increasing data transfer rates.

A system control unit switches an image forming apparatus between normal and deep sleep modes based on data processability.

A FIFO memory device uses a control unit to switch between main and auxiliary storage units for efficient data handling.