Power Network Operation Systems Integration TRIZ Cases

A supervised learning model tunes Volt/VAR inverter settings to cut line losses and voltage rise from distributed solar generation.

Distributed sensors use a separate communications network and backup power to keep power grid monitoring active during outages.

Priority-labeled smart outlets switch loads by power availability, keeping critical devices running during outages and peak demand.

AC output frequency is varied with inverter load so remote controllers can shed noncritical loads without extra communication wiring.

Selective cutoff of one 110-volt line lets a 220-volt appliance keep running at reduced power during peak demand periods.

Sets source and load-transfer priorities across interconnected sites using cost, loss, and backup criteria for reliable power distribution.

Real-time power sharing lets each STS rank transfer priority and shift loads to a catcher UPS without overload during UPS failures.

Baseline energy tracking lets smart sockets detect appliance standby states and cut socket power to reduce wasted consumption.

A shared control apparatus adjusts node-level power limits to prevent grid bottlenecks while preserving local energy exchange flexibility.

Dividing a distribution network into control areas helps balance wind generation and load while minimizing interchange power deviations.

Independent power switching keeps mode selection active while cutting power to main and standby components, reducing off-mode energy waste.