Keynote Speaker 1
|
|---|
 |
| Assoc. Prof. Md Raisul Islam, National University of Singapore, Singapore |
Dr. Md Raisul Islam received his Ph.D. in Mechanical Engineering from the National University of Singapore in 2003. Upon completion of his doctoral studies, he was appointed Technical Director at LJ Energy Pte Ltd, a Singapore-based energy services company. In this capacity, he led multidisciplinary engineering teams responsible for the design, implementation, energy auditing, and retrofitting of high-energy-demand systems, including chillers, boilers, compressed air networks, and Combined Heat and Power systems. He holds a comprehensive suite of professional credentials, including Singapore Certified Energy Manager, Energy Efficiency Opportunities Assessor, Qualified Energy Services Specialist, and Leadership in Energy and Environmental Design Accredited Professional. He is currently serving as an Associate Professor in the Department of Mechanical Engineering at NUS, where he continues to pursue research and teaching in the areas of energy systems and thermal engineering. His scholarly contributions include more than 80 peer-reviewed journal articles, five books, and two monographs, primarily focused on energy-efficient air-conditioning systems and thermal energy processes. Since 2020, his work has garnered over 1,600 citations and an H-index of 23, reflecting the sustained impact of his research in the field. |
| Speech Title: Renewable energy integration opportunities for energy-efficient air conditioning |
Speech Abstract:Air conditioning systems are among the most energy-intensive components of commercial buildings, accounting for approximately 60% of their total electricity consumption. This presentation introduces an integrated set of strategies aimed at enhancing the energy efficiency and sustainability of centralized cooling systems serving multiple buildings. A baseline district cooling plant model was first developed using realistic cooling load simulations tailored to various building types under Singapore’s tropical climate. Building upon this foundation, the study investigates two primary approaches: (a) enhancing operational efficiency through algorithmic control of system components and intelligent distribution of cooling loads across multiple chillers; and (b) integrating onsite renewable energy systems to reduce reliance on grid electricity. Specifically, the analysis evaluates the deployment of rooftop photovoltaic systems for onsite electricity generation and a biomass-fueled combined heat and power system to supply both electrical and thermal energy for cooling purposes. The results demonstrate that the integration of smart demand-side control with renewable energy generation offers a viable and scalable pathway to reduce electricity consumption for cooling. Furthermore, the approach improves the long-term economic sustainability of district cooling systems in high-density urban settings like Singapore. Aligned with global sustainability goals, this work provides valuable insights for both practitioners and researchers seeking to reduce the energy footprint of cooling systems in tropical climates. |
Keynote Speaker 2
|
|---|
 |
| Assoc. Prof. TEH JIASHEN, Universiti Sains Malaysia (USM), Malaysia (IEEE PES Malaysia Chapter, Senior Member) |
Dr. Jiashen Teh is an Associate Professor in Electrical Power Systems at Universiti Sains Malaysia (USM) and Technical Director at UPE-Power Technology Co., Ltd., Taiwan. He earned his PhD in Electrical Engineering from the University of Manchester, UK, in 2016, supported by a full MOHE scholarship. Dr. Teh is internationally recognized for his pioneering work on dynamic line rating and renewable energy integration, having authored over 80 SCIE-indexed journal articles, 3 book chapters, and secured 3 intellectual properties. His work has garnered more than 4,500 citations with an h-index of 40, placing him in Stanford University’s Top 2% of the world’s most-cited researchers for five consecutive years (2019–2023). He has secured over RM1.4 million in competitive grants and consultancy projects, with industry collaborations spanning Malaysia, Taiwan, and Saudi Arabia. A Senior Member of IEEE and Member of IET, Dr. Teh has served as keynote speaker at more than 20 international conferences and has successfully supervised multiple PhD and MSc graduates, including postdoctoral fellows, advancing the next generation of power system researchers. His awards include the IEEE PES Outstanding Engineer Award (2021) and the IET Malaysia Outstanding Young Professional Award (2022). Through his industry-focused training programs, Dr. Teh has impacted over 50 companies—including Intel, PETRONAS, and B. Braun—helping them achieve measurable energy efficiency and ESG outcomes. |
| Speech Title: Dynamic Line Rating (DLR) for Enhanced Grid Reliability |
Speech Abstract: In this keynote speech, dynamic thermal line rating (DTLR) emerges as a transformative solution in modernizing power grid management. Highlighting its significance in enhancing grid resilience and efficiency, the speaker delves into the principles and applications of DTLR technology. Through real-world case studies and innovative approaches, attendees gain insights into how DTLR dynamically optimizes transmission line capacities based on environmental conditions, mitigating congestion risks and enabling higher utilization rates. Furthermore, the speech explores the integration of DTLR into smart grid frameworks, paving the way for a more adaptive and sustainable energy infrastructure. |
Keynote Speaker 3
|
|---|
 |
| Assoc. Prof. Sivaneasan Bala Krishnan, Singapore Institute of Technology, Singapore |
Dr Sivaneasan received the B.Eng. and Ph.D. degrees in Electrical and Electronic Engineering from Nanyang Technological University, Singapore, in 2007 and 2012 respectively. He is currently an Associate Professor at the Singapore Institute of Technology in 2023. Dr Sivaneasan conducts research and development in the areas of power engineering in particular microgrids and smart grid technologies. He has published more than 50 technical papers, and he has obtained more than SGD12 million in research grant funding. His project IP on condition monitoring has been licensed to EA Technology and deployed at 3 industry sites. His current research focuses on condition monitoring systems, renewable energy technologies, electric vehicles, energy management systems, demand response, and smart grids. Dr Sivaneasan is registered as a Chartered Engineer with the UK Engineering Council. He is also an IEEE Industry Applications Society (IAS) Distinguished Lecturer for IEEE Region 10. |
| Speech Title: Are Electric Vehicles the Key to Decarbonization? |
Speech Abstract: As nations strive toward ambitious net-zero targets, transport electrification stands as a cornerstone of decarbonization strategies. Electric vehicles (EVs) have the transformative potential to integrate into smart grids as distributed energy storage systems, significantly contributing to sustainability efforts. This keynote examines whether EVs alone can pave the way to achieving net-zero emissions and enhancing grid resilience, highlighting their role in shaping a sustainable energy future. |
Keynote Speaker 4
|
|---|
 |
| Assoc. Prof. Chua Kian Jon, National University of Singapore, Singapore |
Dr. Chua Kian Jon is an internationally recognized expert in sustainable thermal energy systems, with pioneering research in dew-point evaporative cooling, membrane dehumidification, and waste heat recovery. His innovations support low-energy solutions for industries such as buildings, data centres, electric vehicles, and district cooling. With over 250 publications and 17,000 citations (GS H-index: 70), he is Founding Editor-in-Chief of Nature – Thermal Science and Engineering and ranked a Top 2% Scientist from 2021 to 2024 (Stanford). He has led global research collaborations, delivered keynotes worldwide, and mentored over 20 PhD/postdoctoral researchers. His work drives real-world impact in decarbonizing industrial thermal processes. |
| Speech Title: Are Thermal Energy Systems the Hidden Engine of Sustainability? |
Speech Abstract: As nations pursue ambitious net-zero targets, sustainable thermal energy recovery is emerging as a critical yet underexplored pathway for deep decarbonization. Vast amounts of low-grade waste heat from industrial, transport, and building systems remain untapped. This keynote explores the transformative potential of recovered thermal energy to power cooling, heating, and other end-use applications, reducing reliance on fossil fuels. It examines whether harnessing this latent energy can accelerate the energy transition, improve system efficiency, and drive industrial sustainability - positioning recovered heat as a vital component of a resilient, low-carbon future. |