Science Communication · RWTH Aachen
Whether presented on stage, visualised as an infographic, or written as a text — science belongs to everyone. I make it accessible.
What I offer
01 —
From Science Slams to keynote lectures — I bring physics to the stage. Energy, clarity, and genuine enthusiasm for the invisible forces that govern our world.
02 —
Quantum physics as an image. Complex data as a story. I create visual explanations that stick — not through oversimplification, but through genuine clarity.
03 —
Articles, blog posts, educational materials. I write with precision and life, free of jargon — for everyone who wants to understand what happens inside the world's labs.
In Action
About me
Physicist. Lecturer. Storyteller
of the quantum world.
I am a PhD candidate at the Chair of Experimental Physics and the II. Institute of Physics at RWTH Aachen University. My research focuses on the quantum Hall effect in graphene: how electrons behave on a "dancing" substrate — and how we can harness that behaviour to eliminate electrical resistance.
I hold two Master's degrees — in Experimental Physics and Theoretical Physics — and I firmly believe that good science must be shared. Available online for collaborations worldwide.
Academic Background
Degrees
RWTH Aachen University
Experimental Physics & Theoretical Physics
Research
Chair of Experimental Physics
II. Institute of Physics · RWTH Aachen
Quantum Hall Effect in Graphene & Superconductivity
Teaching
Experimental Physics · Theoretical Physics
Award-winning lecturer, 2021
Communication
Award-winning Science Slam performer
Specialised in quantum physics for broad audiences
PhD Research
Graphene
In graphene — a single layer of carbon atoms — electrons travel at 1/100th the speed of light and behave as massless particles. Strong, flexible, light on their feet: perfect for dancing.
Quantum Hall Effect
Under a strong magnetic field, the bulk of the material becomes an insulator — but electrons at the edges conduct with zero resistance. One material that simultaneously insulates and conducts.
Spin Transport
When the substrate itself starts "dancing" (SrTiO₃), electrons decouple from one another. Each electron discovers its own spin — and opposite spin types flow in opposite directions, opening a path to dissipationless transport.
Superconductivity
Electrons that fall in love: Cooper pairs overcome material defects with zero resistance. The open question — what happens when a lone electron meets a superconducting pair? That's what we're finding out.
Areas of Expertise
Workshop Feedback
Anonymous feedback from participants of the workshop on scientific presenting — covering content, delivery, and impact.
I really enjoyed the questions we should fill out for ourselves. They were vital to learn things about oneself, which happens seldomly nowadays.
The workshop was really well structured. I would have enjoyed to see a good example and a bad example from papers — that could have given a really practical benchmark.
Cognitive mapping of the listener and how to shape it and turn it into an art through various tools was a beautiful idea.
You taught novel insights about presentations I never heard before in similar sources. How you integrated and motivated people to participate was great.
Some time to apply the learned methods to an own old presentation would have been helpful to better internalize the things we learned.
Useful content and good discussion. I liked the effort of bringing high quality printouts.
Contact
Whether for talks, workshops, infographics or written content — I'm available online and look forward to hearing from you.