Energy Efficient ICT TRIZ Cases

Link Layer Discovery Protocol exchanges detect inconsistent Management VLAN identifiers between nodes, ensuring reliable connectivity in hybrid networks.

A network device receiving unit filters incoming data packets by protocol type to maintain power saving mode.

A profiling method uses a dedicated driver to sample execution status at interrupt occurrences for precise command-level data acquisition.

Capacitive sensors detect donning events to switch power states, conserving battery life in head-mounted devices.

Interleaved N-dimensional best-fit decreasing packing minimizes migration time while consolidating virtual machines onto fewer physical machines.

Mobile applications receive real-time power consumption data to optimize resource usage and extend battery life.

A virtual SATA port multiplier uses non-physical layers for direct data transfer between the multiplier and devices.

A storage apparatus reconstructs address translation tables by scanning flash memory spare areas after power interruptions.

A power management method detects compute node utilization increases and compares them against allowable pool budgets to adjust operational states.

A clock transitioning circuit arrangement modifies clock generation unit states via a control circuit and local memory.

A transmitter segments data packets into blocks and applies distinct modulation schemes to each block for optimized spectral efficiency.

Controller die manages internal control bus for selected memory die to provide read data with distinct latency profiles.

Routing protocols detect low-utilization links and deactivate network ports to reduce energy consumption without compromising routing functionality.

A USB bus interface dynamically switches between full-speed and high-speed modes to optimize power consumption.

Class markers identify active flows during protection switching, reducing rule counts and processing time.

Dynamic clock signal adjustment reduces power consumption and heat generation while maintaining high-speed 3D rendering performance.

A network interface card reduces standby energy by segmenting memory and powering down non-volatile storage during idle periods.

A current switching mechanism generates PTAT and CTAT voltages across distributed p-n junction sensors for precise temperature detection.

Input-output hub correlates its power state with the processor to reduce interrupt latency and prevent performance degradation during active operations.

A Multi-Tile Power Management Integrated Circuit uses a hibernate circuit to disable switching power supplies and reduce idle energy consumption.

A rack power control method calculates total node consumption to activate primary and secondary power supply units in pairs.

A multi-bus memory controller architecture separates code execution from data transfer using dedicated buses and DMA.

A switch transmits port identification codes to connected devices for automatic IP address assignment via an address server.

A wireless communication apparatus dynamically enables and disables reception branches based on operational states to reduce power consumption.

Modifies Layer 2 fields using Layer 3 data to distribute packets, preventing congestion and out-of-order delivery.

A storage system selects data protection strategies using power budget metadata to optimize energy consumption.

A persistent file system constructs a virtual contiguous region from scattered byte-addressable non-volatile memory regions.

A coordinated reboot mechanism migrates wireless access points to alternate central controllers during primary controller updates.

Consolidating storage processors, multiplexers, arbiters, and midplanes on one board eliminates complex serial connections and separate power supplies.

Control unit selects delay times from predefined tables to adjust memory read timing margins for specific operating points.

A memory controller adjusts clock frequency to manage thermal energy during continuous data access.

Segmented CSI processes manage channel state information sharing while controlling RRC signaling complexity.

Internal application circuits record trace information directly into system memory, bypassing external interface bandwidth limits to maximize throughput.

A power supply device switches main voltage levels to support multiple load voltages across operation modes.

Hot-plug controllers deactivate idle cores and reactivate active ones based on real-time thresholds, balancing productivity against energy use.

A regulated energy supply uses internal capacity and auxiliary loads to decouple charging frequencies in rapidly cycling integrated circuits.

A power-saving method manages CPU clock speed and system resources dynamically to allow continuous image display on multiple devices.

A storage management system determines drive wear levels before transitioning power states.

Segmenting airflow paths through a conductive air channel lowers fan power while maintaining user comfort.

A power control device establishes direct Wi-Fi Direct links with mobile controllers to manage electrical loads without a central hub.

Dynamic core switching and frequency scaling manage heat generation in multi-core processors by adjusting operating frequencies based on active core counts.

Controller schedules wake-up intervals for radio transceiver and baseband modules to process paging indicators.

Segmenting execution units from the bus interface reduces power consumption while maintaining system responsiveness.

Independent power control blocks manage voltage and frequency per core stripe, resolving instability in global power profile adjustments.

A chipset and processor coordinate via link management registers to dynamically configure bus settings.

Power supply controller reduces consumption before switching between tablet and keyboard dock batteries, preventing voltage drops that cause system termination.

A compiler extracts parallel tasks from programs to schedule processor units efficiently.

A wireless camera uses a power save mode changeover unit to manage electrical power consumption during image transfer.

Adaptive memory frequency scaling mechanisms adjust operating frequencies using performance counters to resolve throughput versus power consumption trade-offs.