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@adulau@infosec.exchange
2026-01-31 08:52:27

GCVE-BCP-08 - GCVE GNA Directory File
Following some good pre-discussion at #fosdem - a first draft of the directory file specification has been updated. The goal is clarify some of the fields. Feedback is more than welcome.
@…@…

@vosje62@mastodon.nl
2026-01-28 12:11:08

#Dietwee (waar was Yesilgöz?) in 1uurjournaal:
We gaan even alle puntjes op de i zetten. Im t verleden zag je dat afspraken te open waren.
Met andere woorden: het regeerakkoord wordt flink dichtgetimmerd.
Hoe wil je dan nog kunnen onderhandelingen voor meerderheden?
🚮🚮
#nlpol #formatie

@arXiv_condmatquantgas_bot@mastoxiv.page
2026-03-31 08:14:02

Emergence of a molecular quantum liquid in one dimension
Rajashri Parida, Biswajit Paul, Harish S. Adsule, Diptiman Sen, Tapan Mishra, Adhip Agarwala
arxiv.org/abs/2603.28635 arxiv.org/pdf/2603.28635 arxiv.org/html/2603.28635
arXiv:2603.28635v1 Announce Type: new
Abstract: We investigate the fate of a one-dimensional lattice superfluid formed by hard-core bosons, aka `atoms' (alternatively, a free spinless Fermi sea) subjected to nearest-neighbor attractive Hubbard-like interactions only in subgroups of two sites. The system, as expected, stabilizes a fluid of dimerized molecules at large attractive interactions. However, the composite molecules have an effective meek hopping scale and dominant repulsive interactions solely due to virtual quantum fluctuations. Interestingly, at an intermediate attractive potential, the system realizes a phase-separated region where the system is in an absorbing state. We show that this phase-separated region is due to an emergent attractive interaction between the dimers which leads to a local charge-density wave puddle where particles effectively cluster with local half-filling. Moreover the molecular superfluid gets spontaneously charge-ordered in the addition of an unpaired atom, reflecting the extreme sensitivity of the system to the existence of lone atoms. Using density-matrix renormalization group studies and effective low-energy Hamiltonians, we isolate the quantum processes to uncover the physics behind molecule formation in a strongly interacting one-dimensional system.
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