Energy Efficient ICT TRIZ Cases

Parse cron job strings to build a visual power level grid, resolving complexity in large network energy monitoring.

Shared memory manager offloads threads to secondary cores, eliminating redundant address translations and reducing power consumption.

Assigns pseudo-wires to multiple groups using distinct methods to enable flexible wildcard messaging across provider edge devices.

A cellular interface acts as a proxy to activate the wireless LAN module only when needed.

A wireless receiver MAC layer identifies erroneous PDUs to guide physical layer selective combining of Forward Error Correction blocks.

An optimization agent monitors virtual machine resource usage and suggests configuration changes to users for real-time adjustment.

A memory controller reorders queued operations by power profile to maximize throughput within strict energy limits.

Adaptive cross self-coherent restoral algorithms extract signals of interest from antenna arrays to identify primary users.

A serial memory system uses a modular command protocol with separate strobe signals to manage data transfer across multiple devices.

Staggered command execution across memory channels reduces power consumption spikes while maintaining throughput during throttled periods.

A multi-core system on chip measures maximum operating frequency per core to allocate tasks efficiently.

An intelligent turbo mode control algorithm monitors processor residency to determine activation thresholds.

Active-high control signals disable NVRAM access before power cutoff, preventing charge flow through ESD diodes and reducing leakage current.

Dynamic resource allocation balances vertex and pixel processing loads by tracking reserved amounts per thread type to prevent pipeline stalls and idle cycles.

Current ramp detection circuits monitor processor power draw to adjust operation rates, preventing voltage fluctuations that slow logic elements.

A dual processor architecture separates critical and general functions to conserve energy in portable medical devices.

An under voltage detection circuit compares supply voltage to thresholds and asserts a throttling signal to manage clock frequency.

A processing unit calculates differential images from frames captured at distinct brightness levels to identify the operating state of an optical navigation device.

Dynamic state segmentation manages digital signal processors across multiple operational levels to optimize power usage.

A memory controller parallelizes command sequences using a phase-shifted mask to synchronize data at rising and falling core clock edges.

Combining resource release and DRX switching in one transmission reduces control overhead and power consumption.

Gateway units filter operating mode data to prevent redundant exchanges, enabling control units to rapidly transition to low power consumption modes.

A multi-level thermal management process identifies active components and sets activity limits to control heat generation.

A virtual machine monitor manages execution units to maintain power-saving states during data processing operations.

Dynamic sampling adjusts data transfer frequency based on process state, reducing traffic load and extending battery life in wireless networks.

Trenches filled with electromagnetic radiation blocking material mitigate crosstalk between integrated components, reducing overall device area.

A power management integrated circuit supplies regulated voltages through configurable source circuits controlled by active memory.

A fuzzy logic controller dynamically adjusts CPU and GPU power states to manage combined thermal loads within shared design constraints.

A chipset asserts a hardware pin to disable the processor data bus during power saving states.

Moving HARQ control functions to the physical layer reduces CPU load and power consumption while maintaining high data transmission speeds.

An input/output device switches photodetection and display modes to lower energy usage.

A thermal management system monitors electrical current flow to identify heat sources and apply mitigation techniques.

A power switch circuit interrupts supply to unused mini PCI devices based on BIOS settings.

Segmenting the memory system into independent lower-frequency channels maintains signal integrity while achieving high throughput via a narrow external bus.

Motion detectors and light sensors control LED indicators, reducing 0.6 watts per switch while maintaining status indication.

Enable flags control SIMD slices to reduce power consumption while maintaining high processing throughput.

A flash storage device integrates a processor to run user applications and extend host capabilities without hardware modifications.

A data storage device copies volatile memory content to a non-volatile hibernate area during low-power transitions.

A stacked memory system uses through-silicon vias to interconnect chips while a controller manages chip select signals for unified data access.

A slow protocol filter in transit devices distinguishes data packets from control packets to route them to separate links.

Adaptive instruction prefetching system packs native code into associative formats to enable concurrent fetching from small caches.

A nonvolatile memory controller adjusts management information writing frequency and error correction coding usage based on operational flags.

A data storage apparatus fixes signal states and stops reference voltage supply to reduce power consumption in terminal circuits.

Group network flows into classes to apply combined firewall and quality of service rules.

A CAN controller manages multiple operating modes to process wake-up messages without waking the host processor.

A measurement circuit monitors transistor delay to adjust supply voltage levels.

A path aggregation group monitor tracks selection counters across multiple network paths to evaluate traffic distribution.

A host-based system monitors user activity across virtual machines to identify inactive instances and apply external power reduction policies.