Welcome. I am a Professor at the Department of Physics of Complex Systems at Eötvös Loránd University (ELTE). My work bridges the gap between theoretical physics and real-world complexity, exploring how order emerges from chaos in systems ranging from biological matter to financial networks and quantum hardware.
Primary Research Lines
Classical & Quantum Chaos
Hidden in apparent chaos is a rigid skeleton of periodic orbits. We explore the duality between local instability and global topology in both classical and quantum systems.
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Quantum Biology
Biological systems operate at the edge of quantum chaos. We investigate why coherence persists at room temperature, contradicting standard thermodynamic expectations.
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Quantum Reservoir Computing
Harnessing the natural dynamics of quantum systems for computation. We explore how complex quantum substrates can serve as reservoirs for processing information without full error correction.
Coming Soon
Complex Networks
From Bitcoin transaction graphs to Ethereum dynamics, we analyze the evolution of digital value. The data reveals structural patterns that defy simple economic theories.
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Urban Scaling
Cities are living organisms. Using large-scale datasets, we uncover the hidden scaling laws that govern urban growth, social interaction, and election results.
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Photonic Quantum Computing
Theory suggests shadow tomography scales indefinitely. Our experiments on QuiX processors, however, reveal a "Hardware Horizon"—a sharp phase transition governed by spectral distortion.
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Origins of Life
We present a universal theory for chemical evolution. From the Murchison meteorite to the Miller-Urey experiment, we show how "rich-get-richer" dynamics drive the emergence of life's building blocks.
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Communication Networks
We analyze how the TCP protocol acts as a carrier for chaos, propagating self-similar traffic patterns and "fractal" behavior across the global internet infrastructure.
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