Our research spans particle physics, detector mechanics and advanced composites, quantum information and quantum machine learning, and applied physics. At the LHC, we study the top quark, Higgs boson, and other fundamental particles not only through "traditional" precision measurements and searches for new physics, but increasingly through the language of quantum information science. Reconstructed spin states, entanglement, quantum steering, and geometric representations of quantum states provide new ways to probe the structure of fundamental interactions and ask whether subtle signatures of physics beyond the Standard Model may already be encoded in collider data.
At the same time, our group develops the lightweight structures, thermal-management concepts, detector mechanics, and advanced composite systems needed for current and future experiments. By connecting instrumentation, computation, quantum science, and fundamental physics, we aim to develop both the measurements and the technologies that expand what can be observed: from the High-Luminosity LHC to the next generation of particle colliders (Electron-Ion Collider, Future Circular Collider - ee) and interdisciplinary applications beyond high-energy physics.