🚨 Extended Holographic Dictionary for TDHCF-MVC

Systematic AdS/CFT extension: hydrodynamic vortices, topological superradiance, TMSS → explicit bulk↔boundary map

4 falsifiable predictions:

JWST z>13 galaxy tensions

ALICE heavy-ion multiplicity anomalies

EIC structure function deviations

BEC vortex activation (TMSS post-selection)

EFT conjectures w/ clear success/failure criteria

📄 https://doi.org/10.5281/zenodo.18379711

#AdSCFT #Holography #JWST #ALICE #QuantumSimulation

🤩#newpublication #call4reading

✍️Selection and Improvement of #ProductFormulae for Best Performance of #QuantumSimulation #by Mauro E. S. Morales, et al.

🔗https://sciendo.com/article/10.2478/qic-2025-0001 (DOI: 10.2478/qic-2025-0001)

Postdoc Position Available – Quantum simulations with trapped Rydberg ions

We are hiring! Our group at Stockholm University is looking for a Postdoctoral Fellow to join us in exploring open-system quantum simulations with Rydberg ions.
• 🌍 Funded by the ERC Synergy Grant Open-2QS
• 🔗 Learn more & apply: qtech.fysik.su.se

#TrappedIons #Postdoc #Hiring #QuantumSimulation #ERC

🚀 We’re hiring! Two PhD positions available at Stockholm University in quantum simulation with Rydberg ions.

🌍 Funded by the prestigious ERC Synergy Grant Open-2QS
🔗 More info & apply: https://qtech.fysik.su.se

Join us in pushing the frontiers of quantum research! ⚛️

#TrappedIons #PhD #Hiring #QuantumSimulation #ERC

Quantum simulation of topological orders

In the previous posts, I was talking a lot about complex quantum states that we aim to study in the QUINTO project: topological orders, in particular spin liquids. Now, let us see how quantum optics can help us in this endeavour.

Topological orders can be hard to find. Not all of them – one particular class, “fractional quantum Hall states”, can be created in the lab by applying very strong magnetic field to electrons confined in two dimensions. But others, such as spin liquids, remain elusive, even though scientists proposed some materials in which spin liquids might occur.

Moreover, with solid-state materials, we don’t usually have enough control to manipulate individual anyons as precisely as we would want (even though impressive experiments were performed with tiny anyon colliders and anyon interferometers in the quantum Hall systems).

An alternative is to assemble a quantum system – a “quantum simulator” from scratch, piece by piece, precisely controlling its parameters. For example, it is possible to “catch” a single atom with a laser beam – a so-called “optical tweezer”. The radiation pressure of the beam “traps” the atom in the point where the light is strongest, i.e. where the beam is focused. Such atoms can then be arranged in arrays resembling crystals.

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#TopologicalOrder #Physics #Science #Quantum #QuantumSimulation #QuantumPhysics #QuantumOptics

🤩The latest episode of #exzellenterklaert is online!
🎧 Tune in now for an inside look at the latest in #quantumsimulation and the collaborative efforts driving innovation in MCQST.

➡️ https://exzellent-erklaert.podigee.io/45-quantensimulation-moglicher-schlussel-zu-hochtemperatur-supraleitern

@dfg_public
#scicomm #wisskomm

Interested in #QuantumMechanics, #QuantumSimulation, or #TensorNetworks? Well, check out my #PhD thesis:

"Parallel Tensor Network Methods for Quantum Lattice Systems: Matrix Product State Simulations on a Supercomputer"

Available to download from my personal website: http://www.secular.me.uk/

Because of the growing multidisciplinary interest in tensor networks, I've tried to make the #thesis as self-contained as possible. I am hoping it will be useful for #Physics, #Chemistry, #Mathematics, and #ComputerScience graduates meeting tensor networks for the first time. It features 700+ references, 100+ figures, 15 epigraphs, and a list of eponyms!