ASGC-7 Congress will serve as a hybrid international conference platform for academics, representatives from government agencies, the private sector, entrepreneurs, industry professionals, students, and the general public to present research and studies on various topics related to smart grids. This hybrid format allows for both in-person and virtual participation, ensuring broader accessibility and engagement. The congress aims to facilitate the exchange of ideas and experiences in researching and developing micro smart grid technologies at both national and ASEAN levels, and to strengthen international collaborative networks in academia, research, and the development of smart grid technologies and renewable energy for the electrical grid systems of the ASEAN region. By offering a hybrid format, ASGC-7 ensures that participants from around the world can join the discussions, share their insights, and contribute to advancing the field of smart grid technologies, regardless of travel constraints.
Smart microgrids utilize advanced technologies like as real-time monitoring, predictive analytics, and automated controls to improve the efficiency of electricity delivery. Localized energy generation and consumption enhance grid stability and resilience by mitigating disturbances.
Distributed generation refers to the process of incorporating renewable energy sources, such as solar and wind, into smart electrical grids, hence decreasing reliance on centralized power plants. The process of decentralization improves energy security, reduces transmission losses, and encourages the adoption of sustainable energy practices.
Advancements in energy storage technologies and management enhance the incorporation of renewable energy and ensure the stability of grid operations. Advanced batteries and optimization algorithms enable the efficient storage of energy, balancing of loads, and maintenance of grid stability, which are essential for improving total energy efficiency.
Smart mobility projects prioritize the electrification of transportation by utilizing electric vehicles (EVs), implementing intelligent charging infrastructure, and integrating vehicle-to-grid technology. These technological developments decrease the release of carbon emissions, improve the adaptability of the power system, and promote sustainable alternatives for urban transportation.
The utilization of Internet of Things (IoT) technology in smart appliances and building automation systems enhances energy efficiency by adapting consumption according to occupancy and environmental circumstances. This integration enhances energy efficiency, enhances comfort, and reduces operational costs in residential and commercial buildings.
Efficient energy management in smart grids utilizes sophisticated technologies such as data analytics and demand response systems to optimize the distribution and use of energy. These instruments improve the dependability of the power system, decrease the highest levels of electricity usage, and promote the use of sustainable energy methods.
Effective implementation of smart microgrid technology relies heavily on the presence of well-defined policy frameworks and robust community engagement mechanisms. They provide regulatory support, encourage investments in renewable energy, and enable communities to embrace sustainable energy solutions, thereby advancing fair access and socio-economic development.
Framework of smart microgrids, efforts to combat climate change are closely tied to the advancement of clean energy. These efforts include the integration of renewable energy sources such as solar, wind, and hydro power, the optimization of energy efficiency through advanced technologies, and the development of resilient, adaptive infrastructure. By prioritizing clean energy, smart microgrids reduce carbon emissions, enhance the reliability and sustainability of energy supplies, and contribute to a more resilient energy landscape. These measures not only mitigate the impacts of climate change but also support the global shift towards a low-carbon economy.
Energy resilience is the capacity of a system or infrastructure to endure and bounce back from interruptions or disturbances in the energy supply, guaranteeing a dependable and continuous energy flow. Strategies for enhancing energy resilience include the expansion of energy sources, the incorporation of microgrids, and the adoption of measures for disaster readiness. These efforts provide a continuous supply of energy, minimize disruptions during emergencies, and maintain socio-economic stability.
Nanotechnology addresses energy and environmental challenges by engineering materials at the nanoscale. In energy applications, nanomaterials enhance the efficiency of solar cells, batteries, and fuel cells through improved conductivity and storage capacity. Environmentally, nanotechnology advances water purification, air filtration, and pollutant detection, effectively removing contaminants. The development of nanostructured materials like nanoparticles, nanowires, and carbon nanotubes leads to more efficient, durable, and sustainable technologies, significantly contributing to global energy solutions and environmental protection.
The 7th ASEAN Smartgrid Congress is to be held in Chiang Mai, Thailand from 12-13 December 2024. ASGC7, a hybrid conference, will be organized by Asian Development College for Community Economy and Technology (adiCET) Chiang Mai Rajabhat University, Thailand and co-organized by Solar Research Institute (SRI), College of Engineering, Universiti Teknologi MARA, Malaysia and Vellore Institute of Technology, India
Asian Development College for Community Economy and Technology (adiCET), Chiang Mai Rajabhat University, 180 Moo 7 Chotana Rd., Tambon Khilek, Mae Rim, Chiang Mai, 50180, Thailand
asean-sgc7@cmru.ac.th
(+66) 62 – 3104908
