Felix Flicker

Dr. Felix Flicker serves as a Senior Lecturer in the School of Physics at the University of Bristol, specializing in theoretical condensed matter physics with emphasis on quantum phenomena in complex materials. His institutional affiliation places him within Bristol's Theoretical Physics research group, contributing to the university's strengths in fundamental physics research.

His educational credentials include an MPhys, MSc, and PhD. Research interests span superconductivity, critical phenomena, degree of freedom quantification, phonon dynamics, density of states analysis, quasicrystal structures, and computational physics methodologies. Flicker investigates quantum phase transitions in aperiodic systems and inhomogeneous materials, seeking exact theoretical solutions for emergent phenomena.

Recent publications reveal a focus on computational approaches to criticality in quasicrystals (2024, Nature Communications) and experimental-theoretical investigations of superconductivity suppression in charge-density-wave systems (2020, Physical Review Research). This work demonstrates consistent engagement with top-tier journals and interdisciplinary methodologies bridging theory and experiment.

Key recognition includes:

• EPSRC New Investigator Award for “Exact Results in Aperiodic Systems” (EP/X012239/1)

As Principal Investigator of the active EPSRC project (2023-2026), Flicker leads research into theoretical frameworks for aperiodic quantum systems. His collaborative network spans international institutions, evidenced by multi-country co-authorship patterns. The project investigates mathematical structures underlying quasicrystals and inhomogeneous materials, with implications for quantum computing materials design.

Flicker operates within the University of Bristol’s Theoretical Physics group, contributing to departmental research clusters focused on quantum matter and computational physics. His work integrates analytical theory development with computational validation, supporting the school’s strategic priorities in fundamental quantum phenomena.