Frequency Control and Disturbance Containment Using Grid-Forming Embedded Storage Networks
Kaustav Chatterjee, Ramij Raja Hossain, Sai Pushpak Nandanoori, Soumya, Kundu, Diane Baldwin, and Ronald Melton

TL;DR
This paper proposes a novel grid-forming energy storage network for fast frequency control and disturbance containment in power systems, improving transient response and localizing disturbances.
Contribution
It introduces a distributed control scheme for storage resources acting as grid-forming assets, enhancing transient stability and disturbance containment compared to traditional methods.
Findings
Storage network improves frequency nadirs during disturbances
Fast-acting safety controls contain frequency transients within limits
Performance depends on storage capacity and inverter parameters
Abstract
The paper discusses fast frequency control in bulk power systems using embedded networks of grid-forming energy storage resources. Differing from their traditional roles of regulating reserves, the storage resources in this work operate as fast-acting grid assets shaping transient dynamics. The storage resources in the network are autonomously controlled using local measurements for distributed frequency support during disturbance events. Further, the grid-forming inverter systems interfacing with the storage resources, are augmented with fast-acting safety controls designed to contain frequency transients within a prescribed tolerance band. The control action, derived from the storage network, improves the frequency nadirs in the system and prevents the severity of a disturbance from propagating far from the source. The paper also presents sensitivity studies to evaluate the impacts of…
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Taxonomy
TopicsDistributed and Parallel Computing Systems · Power Systems and Renewable Energy
