
Explore DMRjulia v1.0, a tensor network library for quantum systems modeling. Learn design principles, hardware optimization, and cutting-edge research applications in this comprehensive introduction.

Kuantum fiziği uzmanı Prof. Dr. Mete Atatüre, bilimde yaratıcılığı ve yeniliği vurgulayarak fiziğin sınırlarını ve geleceğini tartışıyor. Bilimin renkleriyle yeni ufuklar açma vizyonunu paylaşıyor.

Découvrez comment l'intrication quantique améliore la précision des mesures en métrologie, avec des applications pour le temps, le magnétisme et la gravité.

Explore quantum systems, Bose-Einstein condensation, and nonlinear Gibbs measures in this advanced mathematics lecture on mean-field limits and symmetry-induced independence.

Explore advanced topology concepts in multilevel systems and out-of-equilibrium phenomena. Delve into complex theoretical physics and gain insights from cutting-edge research in this field.

Explore Floquet engineering in condensed-matter structures, examining oscillations under various field conditions and their detection through pump-probe spectra. Uncover intriguing phenomena like the Bloch-Siegert shift.

Delve into quantum topology's dynamic nature, exploring how symmetry changes affect topological invariants in non-equilibrium systems through experimental studies with ultracold atomic BEC in 1D lattices.

Explore quantum tomography concepts including bipartite entanglement, state squeezing, and wavepacket revivals in optical systems through expert insights from quantum physics research.

Explores topological pumping in strongly correlated quantum systems, focusing on experimental results with dysprosium atoms in optical lattices and their implications for prethermal states and quantum scars.

Explores inelastic photon scattering in Josephson junctions near the Schmid transition, examining dissipative environments, circuit QED applications, and experimental observations in long junction arrays.

Explore non-ergodicity and Hilbert-space fragmentation in tilted Fermi-Hubbard chains, covering theoretical concepts, simulations, and experimental results in quantum systems away from equilibrium.

Explore spin and energy hydrodynamics in low-dimensional materials, focusing on transport and energy conversion in quantum systems away from equilibrium. Gain insights into recent advances and experimental applications.

Explores quantum Brownian motion in magnetic systems, discussing transport and energy conversion in non-equilibrium quantum systems, with applications in statistical and condensed matter physics.

Explore quantum transport and energy conversion in non-equilibrium systems, covering recent advances in cold atoms, thermoelectric effects, and experimental techniques for studying quantum phenomena.

Explore quantum impulse control and its applications in transporting wavefunctions, featuring insights on adiabatic theorem and practical examples for efficient energy conversion in quantum systems.

Explore topological frequency conversion in quantum systems, covering time-driven systems, Bernoulli models, and experimental protocols. Gain insights into transport and energy conversion in non-equilibrium quantum physics.

Explore turbulence, time's arrow, and equilibrium-nonequilibrium behavior. Delve into fundamental physics concepts, Kolmogorov's theory, energy transfer, and connections to kinetic theory and cosmology.

Explore spontaneous disorder in frustrated lattices near Mott transitions. Examine pyrochlore models, effective theories, and experimental realizations in molybdates. Analyze phase diagrams, magnetization, and transport properties.

Explores spectral functions in finite disordered spin chains, examining transport and energy conversion in quantum systems away from equilibrium. Discusses recent advances in statistical, condensed matter, and atomic physics.

Explores general bounds on shot noise in charge and heat transport systems without currents. Discusses theoretical physics concepts and recent advances in quantum transport and energy conversion.

Explores modified transport in dark eigenstates under strong light-matter coupling, discussing recent advances in quantum systems and their implications for energy conversion and information transport.