Energy resilience refers to the ability of an energy system to anticipate, withstand, adapt to, and rapidly recover from disruptions such as natural disasters, cyberattacks, equipment failures, and supply shortages. A resilient energy system ensures continuous and reliable energy delivery under both normal and extreme conditions. Energy resilience is increasingly important due to climate change, aging infrastructure, and growing energy demand. Strategies to enhance resilience include diversification of energy sources, decentralized generation, microgrids, energy storage, and advanced monitoring systems. Renewable energy and digital technologies play a critical role by enabling flexible and adaptive system operation. Energy resilience supports economic stability, public safety, and national security. It is a key objective in modern energy planning, ensuring that energy systems remain robust, reliable, and sustainable in the face of evolving risks.
Title : The autonomy curve: The impact of ai on energy systems
Scott Kelly, University of Cambridge, United Kingdom
Title : Energy performance of world’s first vacuum insulated heatable curtain for realistic energy-loss reduction with mild radiant heating
Saim Memon, Sanyou London Pvt Ltd, United Kingdom
Title : Transforming waste plastic into renewable hydrogen: A review of progress, challenges, and future directions through pyrolysis, distillation, and hydrotreatment process
Nur Hassan, Central Queensland University, Australia
Title : Why should nature be conserved
Dai Yeun Jeong, Asia Climate Change Education Center, Korea, Republic of
Title : Inclusive energy transition through productive small-scale mobility: Natural gas and LPG solutions for two- and three-wheel transport
Deinar Agudelo Ortiz, Natural Motos sas, Colombia
Title : Micro grid of power electronics, renewable energy storage, and collaboration opportunities
Mustafa Ergin Sahin, RTE University, Turkey