Energy Efficient ICT TRIZ Cases

A portable electronic device adjusts touch detection thresholds to differentiate user inputs from face contacts during calls.

Geographic trunk groups segment routing functions to insulate backbone infrastructure from customer network changes, improving scalability.

A data transfer apparatus resets its physical layer device when disconnected to stop phase-locked loop operation and reduce power consumption.

A microcomputer corrects its sleep mode clock signal by measuring oscillating pulses from a high-frequency reference crystal oscillator.

A parallel algorithm mapping system assigns workloads to compute nodes based on hardware and application thermal profiles.

A wireless sensor network clustering method selects gateway nodes based on neighbor counts to reduce energy consumption.

A virtual proxy translates requests to unify physical and virtual machine management, reducing complexity.

Periodic light source switching maintains stable current consumption while reducing total power usage in wireless mice.

An optical adapter negotiates data rates to maintain reliable communication over multi-mode fiber links.

Compressed Transaction Layer Packet headers eliminate redundant fields to boost read completion performance from 61% to 80% while lowering power consumption.

Processor coordinates transceiver link states to reduce power consumption while preventing far-end crosstalk increases during vectored TDD transmission.

A dynamic clock and voltage scaling algorithm adjusts CPU frequency to meet transient performance deadlines.

A server unifies multiple logical networks under a common network identifier to enable seamless device access.

A digital-to-analog converter detects load disconnection using a reference signal output.

A femtocell base station exchanges control information through a dedicated control channel to coordinate resource block allocation and transmit power adjustments.

Management nodes select ordinary nodes for job assignment based on their specific recovery times from reduced-power states.

Dynamic user equipment grouping minimizes radio interference in full-duplex wireless networks.

Input device power control unit manages sensor states based on angular velocity detection.

A network filter unit retains incomplete packets in RAM to enable rapid CPU activation and response.

Column-level drowsy control manages independent power states to prevent weak bit failure while reducing static leakage.

A host bus controller updates operating parameters by disabling the communication link before applying new frequency settings.

A template engine analyzes application metadata to dynamically provision virtualized hardware resources.

Segmenting the auxiliary power rail into distinct powered-off states enables less than one watt consumption while preserving wake functionality.

A network interface naming utility assigns logical names based on service attributes rather than hardware addresses.

Segmenting I/O processes resolves the contradiction between handling multiple parallel data streams and maintaining high productivity without saturation.

Multiplexing address control signals on a unified bus reduces mobile device pin count.

A controlling apparatus adjusts power consumption using application-specific operational modes stored in memory.

On-chip logic monitors supply voltage, junction temperature, and process speed to dynamically adjust operating parameters.

A mobile station scans pilot signals from active set sectors to identify transparent sectors with low signal strength for power conservation.

A dynamic voltage adjustment mechanism calibrates supply levels based on real-time load conditions to ensure stable integrated circuit operation.

Segmented clock buffers allow independent frequency adjustment of core, bus, and peripheral clocks to lower power without degrading system performance.

A DSL transceiver adjusts transmit power to balance capacity across communication paths and reduce echo interference.

Local monitoring eliminates external coordination overhead, reducing heat generation and extending device lifespan without prior power profiling.

An allocation server and enclosure manager system transitions blades between working and sleeping states to conserve power.

Segmenting physical storage resources into distinct areas enables selective power management, reducing consumption while maintaining data integrity.

A generic processor driver manages power states across multiple processor types using a standardized ACPI object interface.

Host computers broadcast periodic status requests to identify low battery conditions in remote units, preventing assessment disruptions.

A spatial reuse prioritized channel access scheme adjusts contention parameters based on interference levels to enhance network throughput.

A wireless USB host transmits beacons designating device access times to schedule data exchanges.

Dynamic bus idle timer adjustment balances power consumption and system performance by adapting to variable operating conditions.

IO devices define unique identification codes combining engineering data keys with generated numbers for network assignment.

An accelerometer and controller assess environmental vibration before initiating disk drive operation, preventing hardware damage from shock.

Per-priority MTU sizing reduces buffering latency by tailoring queue sizes to specific traffic types.

A throttling group aggregates concurrency limits across multiple business services to manage backend server capacity.

A configurable NAND flash interface switches between parallel and serial modes to reduce bonding complexity while maintaining high data transfer speeds.

Shared cooling and power modules reduce heat generation and maintenance costs while increasing information processing capacity.

A portable terminal measures application power consumption during charging to calculate execution time for new software.

Segmented execution units and programmable finite state machines reduce power consumption while maintaining flexibility across 3G and 4G standards.

Automated clock rate adjustments normalize processor utilization traces, correcting periodicity misrepresentation to enhance data center planning accuracy.