A soliton, the lonely wave,
Through quantum scars it dares to brave,
A ripple carved in spacetime’s thread,
Yet leaves no mark where it has tread.
https://t.co/BY1IOPmxRk
Thanks to @ISTAustria team (Aron Kerschbaumer and @JDesaules) and @Marko_Ljubotina
A new, comprehensive study details the entropy of monolayer and bilayer graphene at temperatures ranging from 200 millikelvins to 300 kelvins.
Get the details: https://t.co/IwJzDjfSR1
Happy to announce that our work on efficient Gibbs samplers at high temperature and universal dissipative QC at low temperatures has been published in Nature Physics 🥳 https://t.co/zPCfUyx2r1
This paper shows how resource theory provides a unified language to describe all Mpemba effects, demonstrating that both the thermal Mpemba effect and its symmetry-restoring analogues arise from the overlap of initial states with the slowest relaxing mode: https://t.co/22Pe6n4RNC
A driving scheme is introduced, achieving exponential gains in annealing efficiency at the cost of an exponentially small nonlocal correction near the critical point.
https://t.co/g9xrHdapz1
What are your favorite video lectures on error correction?
I’ve been spending some time refreshing my foundational knowledge on quantum error correction. It’s been great revisiting core ideas, and I've found the following videos excellent resources so far:
Extending symmetry topological field theory to open quantum systems enables a systematic classification of mixed-state quantum phases and their transitions.
https://t.co/fYjIuDW2mj
A new study reveals how spinon-holon bound states emerge in a ℤ₂ quantum spin liquid, forming fermionic quasiparticles that may microscopically explain Fermi arcs in the pseudogap phase.
https://t.co/uLcCaQ0aU0
A time-dependent variational method that finds periodic paths in the dynamics of quantum spin systems, showing how they reveal links between quantum many-body evolution and classical chaos from prethermal to fully chaotic regimes: https://t.co/pcGAzkrmI1
@alcien_calie@MaksSerbyn
A new framework reveals the first computational phases in topologically ordered systems, extending measurement-based quantum computation beyond short-range entanglement and linking computational and topological properties.
https://t.co/OrrzbEeYAc
In a new study published in @Nature, our collaborators used a Willow quantum processor to observe a new, non-equilibrium quantum phase. This shows the use of quantum computers as powerful experimental platforms for exploring new states of matter. https://t.co/4bj55qhT6A
Proof of the stability of topological order in low-density parity-check codes unlocks the study of gapped quantum phases of matter beyond Euclidean space.
https://t.co/AMi5CFaalP
A theory for the explicit connection between Lieb-Robinson bounds and the generation of entanglement explains the speed limit of information propagation in many-body systems as it relates to #quantum mechanical entanglement during this process.
🔗 https://t.co/Q9OG4oaH78
July’s #quantum science and technology collection spotlights experimental and theoretical advances in quantum spin liquids — exotic states of matter that are expected to display properties like long-range entanglement without breaking symmetry.
https://t.co/C2ZcaH5SxE
#IYQ2025