Energy Efficient ICT TRIZ Cases

A control module adjusts CPU work voltage and clock frequency to maintain stable operation during dynamic overclocking transitions.

Dynamic thermoelectric control adjusts cooling based on workload and temperature, resolving insufficient dissipation in high-density systems.

A SATA interface manages power states using deep slumber modes and out-of-band signal detection for efficient operation.

A mutual awakening system uses interrupt routines to rapidly detect voltage changes on control lines, enabling immediate device activation.

A network analysis system creates connection graphs from traffic data to identify underutilized devices without complex monitoring infrastructure.

A multi-protocol RFID tag uses a cellular intermediary to maintain reliable location tracking when outside standard UHF ranges.

A power and clock control module manages standby signals to reduce energy consumption in electronic devices.

A centralized wake service forwards requests to client-side communication services on computing devices.

Adaptive weight factors update based on measured dynamic power to resolve insufficient granularity in conventional thermal measurement mechanisms.

A thread scheduling method selects active processor threads based on predicted power consumption to minimize peak energy usage.

Dynamic clock rate adjustment in an MRIOV switch reduces power consumption and silicon area while maintaining high-speed I/O device sharing.

Segmenting the receiver allows periodic channel scanning, resolving the energy reliability trade-off.

Programmable arbiter manages shared memory access between processor and data flow blocks using round-robin cycles to reduce processor latency.

Shared differential data strobe terminals reduce silicon real estate usage and power consumption in memory controllers.

A resource monitoring system matches service requests to available capacity using an API.

A DMA controller manages channel clocks to optimize data transfer frequencies.

Storing Location Area Identification and RAT data in a User Equipment table eliminates random scanning delays during Circuit Switched FallBack procedures.

A voltage regulator stores control identifiers in an internal table to transition output levels based on processor performance state indicators.

Segments memory to toggle OS states, reducing power consumption while avoiding slow reboot times.

Decentralized wake-ups allow logically adjacent functional units to independently trigger state transitions, reducing latency during low-power recovery.

A communication circuit uses N clock signals with 360/N degree phase shifts to transfer data between function blocks.

Motion detection activates the pen processor before screen contact, eliminating activation delay while conserving battery power.

A core management entity adjusts operating frequency and voltage levels across multiple processing cores to distribute workload efficiently.

A link state machine monitors communication links between functional units to broadcast availability and manage power states.

A link aggregation method assigns backup data ports to scheduled ports, diverting traffic upon failure detection.

Vertical interconnects in a 3D stacked multiprocessor structure reduce cycle delay and power consumption.

A controller manages point-of-load converters through multiple communication paths and shared memory for efficient power delivery.

The system enables symmetric multiprocessor operating systems to run on lightweight thread contexts by preventing unscheduling during critical translation lookaside buffer updates.

Base station embeds emergency alert indicator in broadcast channel preamble for subordinate stations.

A portable media device uses two onboard hardware decoders to handle signal processing tasks.

Hierarchical layer switching reduces station power consumption by 30-50% during virtual carrier sense, enabling efficient real-time bi-directional services.

A power management system activates processing cores and adjusts operational frequencies to meet defined energy policies.

Merging separate write bit lines into a shared column reduces integrated circuit area and power consumption while maintaining dual phase write capability.

A processing circuit routes interrupt requests through configuration registers to differentiate priority levels across execution environments.

A coordinated paging system uses group identifiers and defined cycles to address multiple devices simultaneously via single messages.

A dedicated handshaking scheme enables subsystems to transition to low power states without software intervention.

Hardware-based hierarchical power management modules autonomously transition devices between states using clock and control signals.

A power supply controller allocates thermal budgets among user device components using performance models to optimize system operation.

Segmenting protocol stack processing across an X2 interface resolves control information management complexity while enhancing data throughput.

A virtual processor management apparatus dynamically reallocates processing resources across real CPUs to balance computational loads.

Static image detection logic triggers memory self-refresh mode to disable clocking circuits during display idle periods.

Extracting master logic to a central controller eliminates redundant circuitry in daisy-chained slave devices, reducing complexity and power consumption.

A printer adjusts fixing temperature based on analyzed dither types to optimize energy use.

Segmenting memory controllers allows non-volatile modules to replace DRAM in main memory, reducing power consumption while managing longer write access times.

A data processing system dynamically budgets power usage by estimating consumption requirements based on operating signals and actual usage.

Client-based overload control adjusts request transmission rates to limit server load and maintain throughput.

A modem adjusts power using a pre-stored model that inputs real-time temperature and frequency data to calculate an offset.