Distributed Voltage Controller with Autonomous Range Adjustment

The power distribution system is divided into multiple independent voltage control regions, each managed by a local voltage controller. Each controller autonomously manages voltage within its own region by coordinating only with directly adjacent controllers, rather than requiring a single centralized controller to manage the entire system. This segmentation reduces overall system complexity while maintaining voltage control accuracy through distributed decision-making.

Each voltage controller is equipped with autonomous decision-making capabilities to handle voltage control decisions locally within its own region. The controllers adapt their control strategies based on local voltage conditions and coordinate with neighboring controllers only when necessary, rather than relying on centralized control for all decisions. This local autonomy reduces communication requirements and system complexity while maintaining reliable voltage control.

The communication architecture is segmented into localized exchanges between adjacent voltage controllers rather than a centralized high-speed communication network. Each controller communicates only with its immediate neighbors to coordinate voltage control actions, reducing the need for expensive high-speed communication infrastructure while maintaining voltage stability through localized coordination.

Each voltage controller autonomously determines its own control actions based on local voltage measurements and coordination with neighboring controllers. The controllers independently make decisions about voltage adjustments without requiring complex centralized control algorithms, reducing the need for expensive high-speed communication networks and centralized processing capabilities.

Adjacent voltage controllers perform preliminary coordination checks before implementing target voltage range adjustments. When one controller considers changing its target voltage range, it first communicates with neighboring controllers to assess whether the proposed change would cause hunting phenomena. This preliminary anti-action prevents unstable voltage control by anticipating and avoiding conflicting control actions before they occur.

Voltage controllers continuously exchange information with neighboring controllers about their target voltage range settings and voltage conditions. This feedback mechanism allows controllers to detect when adjacent controllers are making opposing adjustments that could cause hunting phenomena, and to adjust their own control actions accordingly to maintain stable voltage control while remaining responsive to voltage deviations.

Multiple voltage controllers with moderate capacity are distributed across the power distribution system, each managing voltage control within its own region. By merging the capabilities of these distributed controllers, the system achieves the ability to handle large voltage fluctuations that would otherwise require a single large-capacity device, while reducing the installation space required at any single location.

The voltage fluctuation absorption capability is segmented across multiple distributed voltage controllers rather than concentrated in a single large-capacity device. Each controller handles a portion of the total voltage control load, allowing the system to achieve high voltage fluctuation absorption capability while using smaller, more space-efficient devices distributed throughout the power distribution system.