Abstract

Electric power systems have experienced large increases in the number of intelligent, connected and controllable devices being deployed, leading to a high degree of distributed intelligence at the grid-edge. These devices, both utility-owned and consumer-owned, include renewable generation, energy storage, remote switches, voltage regulators, and smart controllable loads. These new devices provide significant potential for increased operational flexibility that can be leveraged to achieve system reconfiguration, resiliency improvements, power quality improvements, and distribution system automation. However, two significant challenges must be addressed before these assets can be leveraged for operations: interoperability and system level validation prior to deployment. Because of the complexity of distributed control systems, and their interactions with legacy centralized controls, a purely simulations-based approach for pre-deployment validation is not sufficient. It requires hardware-in-the-loop (HIL) testing to emulate hardware devices and evaluate their performance. Additionally, securely integrating multiple test facilities at utility operators and vendors can enable the rapid scale-up of evaluation platforms and remove the need for multiple expensive standalone installations. Presented in this paper, is the development of a multi-site evaluation platform that employs Advanced Distribution Management Systems (ADMS), distributed control devices, real-time HIL assets, secure communication links, and protocol adapters. The testbed has been developed at three sites, with one site hosting the ADMS and the other two hosting HIL capabilities. This platform uses standards-based approaches and open-source tools, and hence can serve as a template for other researchers and institutions to implement their multi-site evaluation frameworks for pre-deployment testing.

Highlights

  • Asafe, reliable, resilient, and clean electric power infrastructure is an essential element of modern society

  • As more and more utilities invest in tertiary control systems, such as Advanced Distribution Management Systems (ADMS) or distributed energy resource management systems (DERMS) to manage and dispatch set points to primary control grid assets, it will become more challenging to coordinate bidirectional power flows from intermittent generation, or to remediate unplanned outage events

  • The Distributed Network Protocol 3 (DNP3) signals are sent from the Real Time Automation Controllers (RTAC) at site 2 to the real-time hardware-inthe-loop simulator which includes the model of the distribution system circuit, emulated intelligent electronic devices (IED) such as reclosers and switches, and power electronic devices such as PV and battery energy storage systems (BESS) inverters

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Summary

INTRODUCTION

Reliable, resilient, and clean electric power infrastructure is an essential element of modern society. As more and more utilities invest in tertiary control systems, such as ADMS or distributed energy resource management systems (DERMS) to manage and dispatch set points to primary control grid assets (e.g. protection & control devices, inverters), it will become more challenging to coordinate bidirectional power flows from intermittent generation, or to remediate unplanned outage events. This is especially true without an automated secondary control system to quickly federate and communicate actionable data between the back-office systems and end devices. This can be achieved by distributing the grid constraints and optimization logic to a secondary control system associated with the specific circuit segment

Evaluating Interoperability At-Scale Prior to Field Deployment
CONSTRUCTION OF MULTI-SITE EXPERIMENTAL TESTBED AND CASE STUDY SETUP
Advanced Distribution Management System
Distributed Intelligence Secure Link Setup
Docker Container Implementation of OpenFMB Adapter
Power Electronic Systems Design in Digital Real-Time Simulator
EXPERIMENTAL RESULTS
CONCLUSION
Findings
VIII. BIOGRAPHIES
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