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Bij TNO kun je als MSc-student aan een onderzoeksproject werken rondom het toepassen van ML voor slimme gasstroommeting en monitoring. Je werkt met experimentele datasets en CFD-simulaties en ontwikkelt data-gedreven modellen onder begeleiding van ML- en energysystemen-experts.
Je onderzoekt onzekerheidskwantificatie, modeluitlegbaarheid en compatibiliteit met metrologische normen, en levert bijdragen aan transparante en reproduceerbare results.
The European Commission aims to achieve a carbon-neutral energy system by 2050, requiring a transition from natural gas to renewable energy gases such as biomethane and hydrogen. This transition introduces new challenges for gas transmission and distribution networks, including increased variability in gas composition, supply and demand, flow rates, and a growing number of grid entry points.
These developments place higher demands on gas flow measurement. Current fiscal metering practices are estimated to underestimate measurement uncertainty by approximately 35%, while accurately quantifying flow meter uncertainty remains essential for metrological traceability, gas allocation, and billing. Consequently, there is a growing need for reliable models that describe gas network dynamics using high-quality measurement data.
To address these challenges, Distribution System Operators (DSOs) and Transmission System Operators (TSOs) are increasingly exploring Artificial Intelligence (AI) and Machine Learning (ML) to enhance gas grid monitoring, operation, safety, and flow metering. Developing trustworthy ML-based solutions requires accurate experimental data, robust uncertainty analysis, and models that are transparent, explainable, and compatible with existing metrological standards.
In this graduation project you will investigate the application of Machine Learning for smart gas flow metering and monitoring. The research will use experimental laboratory data and synthetic data generated through Computational Fluid Dynamics (CFD) simulations to develop and evaluate ML models. Depending on the student's interests, the project may focus on different modeling paradigm (e.g. Classical ML, Physics-Informed Neural Networks (PINNs), Hybrid models, or Probabilistic ML).
The selected student will be supervised by experts in Machine Learning and Energy System Modelling and will work closely with the Heat Transfer & Fluid Dynamics (HTFD) research group. The project provides access to high-quality experimental datasets and Computational Fluid Dynamics (CFD) simulations, offering hands-on experience in developing advanced data-driven models. This research contributes to the digitalization, reliability, and metrological accuracy of future gas energy systems, addressing challenges associated with the integration of renewable gases.
An internship at TNO means working in an environment where substance and impact are central. You will become part of a knowledge organisation where research and practice come together, and where experts collaborate on solutions to current societal and technological challenges.
Your internship is a period in which you can discover what suits you, where your strengths lie and what you would like to learn next. You are part of a professional working environment, gain insight into how things work in practice, and have the opportunity to build experience that goes beyond this internship alone. For many students, an internship is therefore also a first step in discovering whether TNO could be a potential next step after graduation.
In addition, we offer you:
Our people are at the heart of TNO. Their curiosity, expertise and entrepreneurial mindset make it possible to deliver high-impact research and innovations that contribute to society's sustainable wellbeing and prosperity. That is why we invest in an inspiring and inclusive working environment where colleagues can excel, have autonomy and continue to grow.
Your talent and ambition have every opportunity to flourish at TNO. You work with experts (both within and beyond TNO), have access to advanced technology and the freedom to explore, experiment and innovate. Our strength lies in independence, reliability and collaboration. We find each other in wonder and ingenuity. We are driven to push boundaries. By working with businesses and government, and by connecting different perspectives, we strengthen our innovative capability and create responsible, meaningful results.
At TNO, we believe this is our time to help society, government and business move forward faster. Together with driven colleagues, you turn knowledge into concrete innovations or ventures that truly make a difference by combining the power of science and entrepreneurship. And in doing so, you make your mark on our time.
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