Power System Protection and Control of Renewable Energy Integrated Systems, Dynamic Modeling, and Sustainable Energy Systems

21世纪的电网正在利用数字通信技术和人工智能的重大进展来改善其运营。随着人们对环境污染的日益关注，世界各地的电力和能源部门也在推动零排放的发电替代方案。我的研究项目主要集中在可再生能源综合电力系统的保护和控制，小型模块化反应堆（smr）等新型核动力发电机的动态建模，以及可持续能源和电力系统研究。它采用实时仿真方法、人工智能技术、硬件在环仿真和基于稳定性的程序。我的长期目标是开发保护和控制方法，以实现无排放发电技术的现代互联电力系统的可靠运行。在未来的五年里，我将重点研究三个主题的项目：1。高速继电保护、基于逆变器的发电和故障定位：可再生能源通常具有基于逆变器的接口，与传统发电相比，该接口具有显着不同的故障响应。我将研究与可再生能源接口的电力系统的新型通信辅助线路保护方案，以及基于物联网（IoT）的方法，用于准确检测地下交流/直流配电电缆的故障和定位。2. 电力系统中的实时失步预测和可控孤岛：新的基于可再生能源的电网将容易停电。我将研究检测电力系统不稳定状况的方法。我还将研究可再生能源电力系统的级联停电情况。我还将利用图论开发控制孤岛方法，以最大限度地减少停电面积。我还将开发由于基于逆变器的发电和非线性负载的短期电压稳定性检测的新方法。3. 可持续能源：平衡可再生能源与存储和新的核能技术，如smr：我将研究新的通用型核能发电模型，可用于电力系统保护和控制研究。我将把反应堆侧热力学模型包括在涡轮发电机模型中。我还将开发基于可持续能源（热电联产）的电力系统模型。这项研究将允许更快的故障检测和定位，从而使电力系统更加可靠和稳定。实时控制的孤岛解决方案将限制在最坏情况下停电的区域。随着新的补救行动计划的实施，这项研究将使加拿大的电力和能源工业受益。可持续能源主题将有助于为初级电网以及离网地区（偏远社区）开发低碳能源系统。

The 21st-century electrical grid is exploiting significant progress made in digital communication technologies and AI to improve its operation. With increasing concerns regarding environmental pollution, power and energy sectors all over the world are also pushing towards emission-free generation alternatives. My research program focuses on the protection and control of renewable energy integrated power systems, dynamic modeling of new nuclear-powered generators such as small modular reactors (SMRs), and sustainable energy and power system studies. It employs real-time simulation approaches, AI techniques, hardware-in-the-loop simulations, and stability-based programs. My long-term objective is to develop protection and control methodologies for the reliable operation of modern interconnected power systems with emission-free generation technologies. During the next five years, I will focus on research projects within three themes: 1. High Speed Relaying, Protection with Inverter-Based Generation, and Fault Location: Renewable energy resources often feature an inverter-based interface that has a significantly different fault response compared to conventional generation. I will investigate new communication-aided line protection schemes for power systems interfaced with renewable energy as well as Internet of Things (IoT)-based methodologies for accurate fault detection and location in underground AC/DC distribution cables. 2. Real-Time Out-of-Step Prediction and Controlled Islanding in Power Systems: New renewable energy-based electric grids will be prone to blackouts. I will investigate methods to detect instability conditions in the power systems. I will also investigate cascading outage conditions in power systems with renewable energy. I will also develop controlled islanding methods using graph theory to minimize the area of blackout. I will also develop new methods for short-term voltage stability detection due to inverter-based generation and non-linear loads. 3. Sustainable Energy: Balancing renewable energy with storage and new nuclear power technologies such as SMRs: I will investigate new generic-type models for nuclear power generation that could be used for power system protection and control studies. I will include the reactor side thermodynamic model in the turbine-generator model for load following. I will also develop sustainable energy (combined heat and power production)-based power system models. The research will allow faster fault detection and location so that power systems can be made more reliable and stable. Real-time controlled islanding solutions would limit the region of blackout during worst-case conditions. The research will benefit the Canadian power and energy industry as new remedial action schemes are implemented. The sustainable energy theme will help develop low-carbon energy systems for primary electric grids as well as for off-grid locations (remote communities).