This, after all, has been the guiding principle behind our latest updates, bringing interfaces to the #TRIQS and #w2dynamics libraries, as well as language-level interoperability with Python, C/C++, Julia... and, with minimal effort, any C-interfacing language you might think of 😉

We hope that this fresh publication strategy will allow for easier and effective dissemination of our software, tightening ties with the broader impurity-model community and enhancing opportunities for cross-development of #QuantumEmbedding schemes.

The publication is a bundle of a software paper, with special attention to instructions and examples, and the source code itself, which is not relegated to a static archive, but consists of a full-fledged citable git-repository, that we will keep updating at every major release of the library.

We also introduce explicit, ready-to-go interfaces with two major DMFT frameworks, #TRIQS and #w2dynamics. The EDIpack2TRIQS layer will be presented this week at the TRIQS yearly meeting.

Thanks to @massimocapone.bsky.social for bringing @edoardo_zavatti, me and @samuelegiuli.bsky.social into this exciting adventure!

Whereas standard cuprates must find a compromise between correlations and coherence to find a maximal critical temperature at optimal doping, we propose that trilayers effectively hack the limitation by realizing both aspects all together. A sort of ying yang superconductor if you will 😄

Overall, these results complement the experimental data in suggesting an important proximity influence between layers, with the underdoped central plane providing strong correlations ⟩〰⟨ (hence a larger d-wave gap) and the outer ones providing coherent quasiparticles ⚾💨.

Furthermore, in the superconducting phase, the central layer displays a greatly enhanced d-wave gap at densities relevant for the experimental realization. At larger doping fractions even the overdoped outer layers have a slightly larger gap than a corresponding single layer.

Our model captures the essence of layer dependent physics, with the central and outer layers respectively pinned to the underdoped and overdoped regimes. Yet, in the normal phase, all layers display a higher quasiparticle count with respect to a single layer at the same doping!

Even just one that does not pester your day to day scrolling with random refreshes, making you lose track of what you were reading/looking at.