MarKuster
I graduated from the University of Tübingen at the Institute for Astronomy and Astrophysics in theoretical and experimental Astrophysics. My scientific research focuses on the development of detectors and instrumentation for space and terrestrial applications. During the last 25 years I worked in the fields of X-ray astronomy, the race for dark matter and currently I am working on detectors for photon science.
Further stations of my career were the Max-Planck Institute for extraterrestrial Physics, the University of Technology in Darmstadt and the European Organisation for Nuclear Research - CERN. At the European XFEL I was responsible for the detector program of the first-generation detector systems up to routine operation.
Session
Science advances by extending our senses beyond the limits of human perception, pushing the boundaries of what we can observe. In photon science, imaging detectors serve as the eyes of science, translating invisible processes into measurable and analysable data. Behind every image lies a deep understanding of how detectors see, respond and perform.
At facilities like the European XFEL, the world's most powerful X-ray free-electron laser located in the Hamburg metropolitan area, imaging detectors capture ultrashort X-ray flashes at MHz frame rates and with high dynamic range. Without these advanced detectors, even the brightest X-ray laser beam would remain invisible. They help to reveal what would otherwise stay hidden, such as the structure of biomolecules, the behaviour of novel materials, and matter under extreme conditions. But how do we know they will perform as expected? And how do we design systems capable of “seeing” the invisible?
I will take a closer look how imaging technology in large-scale facilities is simulated and designed to make the invisible visible. From predicting detector performance to evaluating image quality, we look at how performance simulation helps scientists and engineers understand the “eyes” of modern science.