HTEMS Short Course

HTEMS Short Course Information
Date & Time:	April 29, 2019 (Monday), 8:30 to 18:00
Lecture Venue:	Executive Seminar Room (S2.2-B2-53), Block S2.2, Level B2, Room 53, School of Electrical & Electronic Engineering (EEE), NTU [Click to Map]
Demo Venue:	Clean Energy Research Laboratory (S2-B7c-05), School of EEE, NTU [Click to Map]
CPD Programme:	This course is qualified for 5 PDUs by Professional Engineers Board (PEB), Singapore. Please visit [Click to PEB Website]
Fee(net amount):
	S$600 or on site S$700 (subject to space availability)
	Early Bird Registration: S$550 by April 8, 2019
	Group Registration (3 or more from the same organization registered at the same time) and Individual IEEE/IES Member Registration: S$500 by April 15, 2019
Registration Link:	[Click to Register]
Short Course Brochure:	[Click to Download]
Directional Map for Visitors:	[Click to Download]
Demonstration Sequence:	[Click to Download]
HTEMS Short Course Instructor
Associate Professor H. B. GOOI [Homepage]	Assistant Professor Christopher H. T. LEE [Homepage]	Lecturer Eddy Y. S. FOO [Homepage]
HTEMS Short Course Summary
To address the stability issues due to the integration of the intermittent and variable renewable energy sources (RESs) into the utility grid, a novel hierarchical transactive energy management system (HTEMS) is proposed. The HTEMS considers the distributed energy resources (DERs) which include RESs, energy storage systems (ESSs) and standby generators at commercial and industrial sites. Microgrids can be used as a platform to incorporate RESs, ESSs and generators and validate the proposed HTEMS for monitoring and control of DERs. The proposed HTEMS can enhance their availability, reliability and efficiency.     Since May, 2015, the HTEMS research team has been working on the Energy Market Authority (EMA) funded project entitled "Novel Hierarchical Transactive Energy Management System Incorporating Predictive Assessment Techniques for Enhanced Community Market Participation". In this project, a novel microgrid configuration including the model predictive control (MPC) based load frequency control (LFC) strategy with ESSs, a universal hardware-in-loop (HIL) platform, a flexible power quality conditioner (FPQC) for the power quality improvement, and a multiport three-level cascaded converter (MTLCC) for the hybrid energy storage system (HESS) is proposed for the validation of HTEMS, as shown in the figure below.               Based on the novel microgrid and the proposed HTEMS, a short course will be conducted. In this short course, four presentations related to the overview of the project, MPC-based LFC, HIL, FPQC and MTLCC interfaced HESS will be introduced. The basic concept, development and principle of these technologies will be introduced in detail, and the corresponding demonstration will be conducted on site. The participants are able to understand the principle of operation, current R&D trend and the challenges of the technologies towards the improvement of reliability and power quality of the microgrid. In addition, we will share with the participants the design rules and implementation methodology of the microgrid and HTEMS.