In an interconnected and digital global society, even small disruptions can have far-reaching impacts. A society that faces complex challenges demands solutions not seen before: today’s engineers must engage in developing ‘anti-fragile’ systems that are prepared for the unexpected and become stronger under stress.
We embed Resilience Engineering in a triple context of education, fundamental research, and beneficial real-world solutions that make our society stronger, safer, and more sustainable. At ET, we focus on remodelling energy, water, and transport infrastructure networks and supply chains. Within this framework, we prioritize integrative approaches. These include systems engineering and integration, nature-based solutions, water footprint assessment, decentral and decarbonised energy systems, and circular constructions for served and under-served communities.
As we work towards resilient solutions, we place people and the planet at the centre, linking to the United Nation’s Sustainable Development Goals, including the 9th: ‘Build resilient infrastructure, promote inclusive and sustainable industrialisation, and foster innovation.’
The mission to create a resilient society brings together several ET departments, including:
1. NEON: zero-emission energy and mobility systems
The Department of Design, Product & Management collaborates with Dutch scientists in the multidisciplinary research programme NEON. The project aims to accelerate the transition into zero-emission energy and mobility systems. Through this, the team can investigate, and even direct, the impact of important interventions, like incentives and regulations
2. Integrating climate-proof dikes and conserving the environment
The Department of Civil Engineering & Management works with Dutch regional water authority Drents Overijsselse Delta (WDODelta) to integrate highwater protection and nature development. The programme explores nature-based solutions for dike reinforcement. While challenging, this solution brings together climate resilience, water safety, and nature conservation.
3. Optimizing hydrogen pathways while reducing waste
The Department of Thermal and Fluid Engineering collaborates with the Natural Sciences & Engineering Research Council of Canada to identify optimum hydrogen pathways from waste heat and water. The goal is to reduce grid load, helping to minimise waste and maximise energy security.
Theme leader:
dr.ir. J. Vinke - de Kruijf (Joanne)
Associate Professor
