Energy Efficient ICT TRIZ Cases

Grouping mobile terminals reduces blind detection load and power consumption while optimizing radio resource efficiency.

A fan module control device switches between fully powered and power-saving modes to adjust rotational speed based on ambient temperature.

Dynamic frequency scaling with configurable clip values prevents power excursions while maintaining deterministic performance under varying workloads.

Periodic switching cycles enable accurate power consumption data while reducing system complexity and avoiding measurement interference.

A processor architecture applies dynamic voltage scaling to function and peripheral unit blocks for energy efficiency.

Embedding authentication keys in LLDP packets prevents unauthorized connections while avoiding the computational overhead of IEEE 802.1X.

Master unit acquires neighbor cell data to reduce RF processing load and power consumption in dual-standby mobile terminals.

A processor power control unit measures non-core domain residency time using interrupt signals and timers to determine optimal power states.

Multi-station analysis segments axial bias and scale factor corrections to resolve poorly conditioned solutions in wellbore surveys.

A notification unit adjusts timing intervals based on control modes to optimize power consumption.

An Application Central Controller gathers application state data to initiate host shutdown or hibernation in virtualized environments.

A non-DRAM memory controller manages access to non-volatile memory modules via standard DRAM sockets.

A cache system controller turns off sense amplifiers for unused ways to reduce standby power consumption.

A single integrated circuit supports both USB 2.0 and eUSB2 connectivity through shared transceiver circuitry.

A dynamic cooling system adjusts individual device thermal delivery based on real-time performance targets within a processing cluster.

A filter driver intercepts data transfer requests to suspend a USB hub, holding them until the device resumes normal operation.

A liquid crystal display reduces power consumption by altering video luminance through pixelated filters before lowering backlight intensity.

A Bragg reflection waveguide guides fundamental and second harmonic waves through combined total internal reflection and transverse Bragg reflection.

A wireless communication device analyzes status signals to determine synchronous timing for data transmission.

A resource scheduler assigns priority access to virtual machines based on accumulated credits earned during low activity periods.

A projector system adjusts light source brightness and pixel values based on analyzed image data to manage power consumption.

Merging separate control interfaces into one unit reduces channel occupation and power consumption while maintaining DRAM and flash compatibility.

Separate invalidate bits track potential cache entry invalidations to reduce snoop operations and power consumption in multiprocessor systems.

Schedule Information Vector protocol assigns wake-up times to wireless stations based on calculated transmission durations.

A bus microcontroller power control circuit selectively activates processor segments to manage energy states.

Accelerator controller module switches between hardware and software accelerators based on CPU usage thresholds.

Side-band handshaking enables optical modules to reduce laser power while maintaining instantaneous wake-up response times.

A mobile device maintains a wireless access point list by decrementing entry counts over time to conserve battery power.

Centralizing memory cap enforcement in a global zone eliminates security risks and configuration complexity caused by untrusted local daemons.

A wireless switch sends a beacon frame to wake mobile devices from sleep mode and configures access points on the same channel.

A switch enables direct data transfers between peripheral devices using DMA controllers.

Monolithic integrated circuit with virtual universal asynchronous receiver transmitter and multiplexer enables remote terminal services over a network.

Liquid cooling modules supplement air cooling to resolve thermal constraints, enabling high-speed processors within compact portable housing limits.

Standalone hardware pipeline processes media content directly, eliminating unnecessary memory transfers and CPU intervention to reduce power consumption.

A dispenser mediates resource requests between safe language isolates and the operating system.

A storage element captures current I/O pin values before a processor core enters sleep mode to maintain asserted states.

A wakeup content-addressable memory compares register tags to disable physical register file reads.

A power management apparatus detects process energy needs and coordinates with other devices to borrow electricity.

A communication apparatus adjusts transmission bandwidth using a sliding window mechanism to manage data flow rates.

Segmented sleep mode transistors activated sequentially minimize in-rush current and voltage drop while simplifying timing simulations for memory devices.

A controller adjusts clock signal frequency based on upstream buffer utilization levels to optimize data processing circuit performance.

A wireless communication device calculates estimated uplink received signal strength using base station effective radiated transmit power to determine appropriate transmission levels.

WWAN modules throttle transmit power via thermal sensors, negotiating base station classes to resolve overheating risks.

A performance allocation engine dynamically distributes resources between the graphics processing unit and central processing unit.

Hardware error correction unit identifies low-voltage data errors using a local buffer to generate correction codes.

A workload placement selector assigns processing tasks to processors based on real-time temperature sensor readings.