Energy Efficient ICT TRIZ Cases

A network device control unit manages light emitting element emission states to minimize power consumption during low activity periods.

Dynamic power allocation prevents service outages by adjusting CPU frequency and voltage to match actual workload demands.

Segmenting computer services allows activating only required devices, reducing electricity consumption and boot time.

A processor control system dynamically adjusts operational parameters based on real-time thermal capacity monitoring.

A dual mode receiver erases baseband signals during unscheduled transmissions to protect scheduled service reception.

Segmented power states reduce entry latency and extend battery life by keeping the baseband module powered during memory self-refresh.

A music reproducing device uses a notification controlling section to halt information flow during inactive states.

A cooling system monitors hardware commands to detect intensive operations and activates targeted thermal management before heat generation occurs.

A gateway-enabled device receives wake-up requests through a management server to establish an HTTP tunneling session with a cloud server.

A mobile terminal uses a tap-sensitive sensor to detect directional gestures on the display surface for direct software control.

Electrically-steered directional antenna tracks strongest signal source to boost reception quality, eliminating user head tilting and reducing transmit power.

Server SSD maps storage to memory, enabling direct SCSI to RDMA transfer without CPU involvement.

A semiconductor memory system allocates signal transfer bandwidth across shared transmission lines connected to common memory devices.

Switches forward tagged LLDP packets to a controller, enabling accurate topology recognition across multiple networks.

Self-configuring interfaces reduce power consumption in wireless sensor networks by adapting to connected devices.

Small cell base stations monitor uplink transmissions to conserve power during discontinuous transmission mode.

A power saving mode controller adjusts voltage and frequency levels to manage computer system energy usage.

A system detects GPU idle states to switch display driving tasks between high-performance and low-power units.

A storage tier component groups heterogeneous media into tiers to provision resources across a distributed grid.

A content-terminated direct memory access circuit autonomously transfers data until filter criteria are met.

Potential difference equalization circuit prevents instantaneous discharge and moisture-induced natural discharge during battery charging.

A motion sensor circuit detects device movement to selectively power an input device and generate an activation signal.

Local junction temperature sensing converts thermal data into current signals for precise flash LED derating control.

A scatter gather mechanism distributes data chunks across multiple point-to-point interfaces to aggregate bandwidth.

Periodic refresh operations using training patterns reduce reconnection latency and thermal issues during low-power states.

A transfer communication node selectively connects and disconnects buses to route signals between segments.

A hardware interlock governs digital circuit power demand to enable dynamic switching between lower and higher capacity power supply modes.

On-chip power management logic dynamically regulates integrated circuit power consumption using voltage-controlled frequency modulation.

Direct memory configuration passes parameters between processors, eliminating dual-port RAM and reducing chip area.

Segmenting applications allows offloading complex tasks to external servers, reducing device complexity while maintaining security.

Infrared proximity detection adjusts color display intensity based on motion degree, reducing power consumption in battery-powered thermostats.

An I/O controller estimates power consumption from interface activity levels to enable dynamic limit adjustments.

Segmented tiles with dedicated switches coordinate memory transactions via message-based completion checks, balancing reconfigurability against performance.

Dynamic load thresholds based on thread utilization variance optimize the performance per power ratio by preventing unnecessary turbo mode transitions.

A disengageable memory controller links volatile and solid-state modules to processors.

Dynamic beacon power adjustments redistribute mobile stations across access points, resolving network congestion caused by uneven loading.

A clock control unit adjusts signal frequencies for parallel processing modules based on estimated processing times.

Separate power supply paths isolate a low-power standby micro-controller from a high-performance main unit, eliminating leakage current during idle states.

A data processing system forces idle states to reduce leakage power consumption.

A multi-point calibration table stores reference codes for specific clock frequencies to adjust supply voltage accurately.

Forced cache hit operations reload valid data after tag memory errors, avoiding error correction overhead and maintaining system performance.

A heterogeneous multi-core processor dynamically migrates tasks between big and little cores to balance processing speed with power consumption.

Passive data sniffers analyze network packets to trace transactions, eliminating agent overhead and preserving application performance.

Segmenting ARP storage across packet processors resolves memory constraints that limit the number of connected hosts in virtualized networks.

A portable electronic device detects covering displacement to reveal a partial user interface without full unlocking.

A station limits service period length via an uplink frame field to control buffered traffic delivery from the access point.

Dynamic threshold-based scheduling adjusts migration process execution times to prevent host I/O bottlenecks while maintaining data migration throughput.

An auxiliary power connector with a sense line enables devices to adjust power usage via hardware control logic.

Memory controller decodes commands to set driving power modes and adjust channel interleaving.