Energy Efficient ICT TRIZ Cases

A processor power management system scales the idle detection metric according to the current clock frequency.

A controller selects hard disk drives by rotational speed to match data access patterns with drive capabilities.

A diagnostic system captures operational data from a communications device and transmits it to a remote computing platform for analysis.

Adjusting GPU clock rates by idle time thresholds reduces power consumption during inactive periods while maintaining processing speed.

Synchronized local port state database reroutes multicast packets within 10 milliseconds, preventing downtime and packet loss during port failures.

A sensor node power management unit regulates energy to memory banks and RF transceivers individually.

A memory hub device tracks bus and device utilization to enable runtime performance validation.

A clock frequency controller adjusts processor speed using real-time efficiency data to match workload demands.

A monolithic CMOS integrated circuit combines a photo-diode, analog-to-digital converter, and infrared LED driver to detect proximity.

A power management program detects user activity and running process identities to select appropriate system states.

A network system manages energy receiving and storage components using real-time cost data to optimize usage patterns.

Segmented CTS frames and early CF-End signals resolve medium utilization inefficiencies by releasing unused TXOP duration across multiple operational modes.

A display control system segments screen regions to dim inactive areas while keeping active content fully illuminated.

A mobile terminal apparatus identifies points of interest using repeater identification data to provide geographic context without constant GPS polling.

A power controlling device activates imaging units only when a person is detected in the detection area.

Segments management traffic via unique VLAN identifiers to reduce device complexity while maintaining reliable connectivity across hybrid networks.

A power management system introduces synchronized device states and platform modes to reduce energy consumption in computing platforms.

CPLD-controlled upstream amplifier powers off during idle periods to reduce cable modem energy waste.

A dynamic control mechanism gates clock signals to individual SIMD units in a graphics shader complex based on workload status.

Encapsulating data packets with source and monitor port IDs enables location-independent dynamic port mirroring across distributed virtual switches.

A display device segments screen regions to maintain high visibility in emphasized areas while lowering luminance elsewhere.

A workload management system assigns under-utilized resources to free pools for deactivation.

A femto node broadcasts closed subscriber group identifiers while bypassing membership verification for non-subscriber user equipment.

A display controller changes screen states using a proximity detector to sense user presence without physical contact.

Dynamic power supply segmentation improves server efficiency at low loads while a capacitor arrangement ensures reliability during transitions.

Segmented power blocks enable zero consumption during saving modes, resolving the trade-off between user convenience and continuous energy drain.

Periodic scan segmentation reduces power consumption by dividing scan lines into groups, lowering energy usage during idle periods.

Configuring measurement gaps to overlap neighbor cell discovery subframes enables power-efficient device-to-device discovery across different cells.

Adaptive computing ensemble microprocessors dynamically allocate flexible computation units to threads based on real-time workload demands.

A low-power processing system shares resources with a primary processor via a chipset to enable separate operation modes.

Segmenting the 16-bit address into multicast and group fields resolves the IEEE 802.15.4 MAC layer limitation of lacking native multicast support.

A virtual machine outputs a deactivation prohibiting signal during device processing to control the deactivator.

Customizable refresh periods balance power consumption against transition time, reducing noise while maintaining receiver states.

Adjusting clock frequency and transmitting dummy data maintains synchronization between MAC and PHY layers while reducing power consumption.

An embedded controller detects module types and overrides power down signals to prevent data loss from incorrect identification.

Advance notification unit queries programs before power-saving transition to reduce response time and prevent delays from multiple object checks.

On-demand reload and error detection schemes eliminate regular refresh operations, reducing power consumption and read/write stalls in high-speed caches.

Voltage detection circuits trigger power saving modes in memory controllers to prevent data loss during unstable power conditions.

Segmenting the hub reduces power consumption and size by eliminating separate super speed components.

Automated clock-gating propagation identifies sender memory elements and generates enable signals to reduce switching power.

A dual mode touchpad switches to a low power proximity detection circuit when idle.

Server controller routes print tasks to active printers, avoiding power-hungry mode transitions in idle units.

Recipient devices set congestion flags in acknowledgement packets to signal network load without relying on intermediate router support.

Link controller stops transmission block during idle periods and outputs received idle data to reduce power consumption.

Daisy-chained memory modules use delay circuits to stagger resume transitions, reducing peak rush current during mode changes.

Governor logic selectively enables content addressable memory blocks based on stored limits, preventing overheating from excessive data throughput.

Segmenting the display into virtual screens reduces power consumption by closing unused areas, improving battery life.

A modified spatial combiner adapts signals via element-wise multiplication with a shaping matrix to reduce peak-to-average power ratio.

A dynamic network access system automatically configures ports based on detected device types using pre-defined policy mappings.

A file server migrates inactive files to low-power drives, reducing energy consumption by minimizing active disk count.