Energy Efficient ICT TRIZ Cases

A detection system monitors housing movement to automatically lock the input interface upon closure.

A chassis management controller adjusts active power supplies based on real-time device consumption measurements.

An adaptive thermal management system dynamically adjusts processor voltage and frequency to minimize heat generation.

A processor saves architectural state to non-volatile storage and gates power to idle segments without operating system involvement.

A performance control apparatus dynamically adjusts CPU frequency based on real-time load detection to optimize power consumption.

A stateful negotiation protocol exchanges and verifies energy-efficient parameters between network devices.

Segmenting buffers by priority and applying selective backpressure reduces latency jitter for high-priority packets.

A software cluster manager dynamically allocates processes across CPUs to balance load.

A memory controller generates a clock enable signal to initiate power savings mode in connected buffers.

A memory encryption unit divides data into sub-blocks for independent processing.

A chipset detects control request signals on specific bus pins to dynamically toggle an input buffer state for data access in multi-processor systems.

Dynamic re-shift times adapt to return factors, resolving the contradiction between reliable call detection and minimized power consumption.

A communication device adapts congestion window settings during path handovers to maintain transmission rates.

A screen controller adjusts display frame rates based on input signal motion characteristics to optimize power delivery.

Serialization logic selects one target address from parallel requests, deferring others to resolve memory access latency and overhead.

A mobile device rotates displayed images using gravity sensors and face recognition to align content with user orientation.

A power management controller uses a delayed control signal to transition memory power modes relative to chip select timing.

A hardware power management circuit uses shadow registers to promote parameter settings during bus frequency transitions.

Lower and upper switching hubs exchange control frames to configure link aggregation groups before data transmission begins.

An NVCM controller manages hard disk drive power states to conserve energy.

A dual processor architecture manages power states in an image forming apparatus by restricting the first processor during idle periods.

A microcontroller system reads calibration values from configuration storage and writes them to component registers during power mode transitions.

Unifies server and storage management to migrate applications while replicating data, resolving coordination complexity and reducing power consumption.

A mobile terminal selects a download strategy based on mail priority and size to optimize power saving and transmission efficiency.

A logic expansion unit manages individual USB port power states based on detected connection status.

A hardware access filter predicts cache hits to route memory requests directly to off-chip DRAM.

Segmented forwarding tables let switches make independent decisions, eliminating stacking link traversal and reducing latency.

Hardware access module adjusts memory request priorities based on dynamic voltage and frequency scaling states.

A dynamic power adjustor scales integrated circuit clock frequency based on real-time consumption levels.

A processor handshaking mechanism coordinates standby entry with a management unit to prevent premature awakening and ensure stable operating conditions.

A process request determining section assigns tasks to a main or sub-CPU based on their operational states.

Transfer mode control unit outputs error codes when host devices request unsupported clock frequencies, preventing interface errors.

Freezing uncore domains enables dynamic frequency scaling without draining transactions, reducing power by 7 W per processor.

Adaptive slot selection lowers power consumption while maintaining communication quality in TDMA-TDD wireless networks.

A phase shift-based precoding method adjusts signal angles to optimize transmission efficiency in multi-antenna wireless systems.

A carrier indicator notifies user equipment to switch from aggregated carriers to a single anchor mode.

Core-specific scheduling adjusts frequencies by comparing average loads against thresholds, reducing unnecessary power consumption.

A wireless communication apparatus detects interference errors to maintain stable transmission rates.

Deriving available medium time from Bluetooth schedules suppresses co-localized interference while maintaining WLAN throughput.

A voltage detector monitors mobile terminal power levels to disable the digital multimedia broadcasting modem when energy drops below a set threshold.

Transmitting device adjusts signal amplitude based on acknowledgment feedback to reduce power consumption while maintaining PCI Express data stability.

Retrodirective Array Phase Modulator steers RF waveforms to boost passive tag signal power, extending transmission range without increasing transmit energy.

A memory management device selects termination candidates based on allocation size to secure available capacity.

A CPU-managed run list allows a coprocessor to switch tasks immediately, preventing resource starvation and improving scheduling efficiency.

Segmented memory banks enable efficient matrix transposition and scatter/gather operations without increasing silicon area or power consumption.

A physical layer device integrates a magic packet circuit to detect wake signals and control power states for the media access controller.

A controller selects extended display identification data based on power source conditions to adjust image output parameters.

Storing call session state in a hibernation database reduces network resource consumption and setup delays during peak traffic periods.