Publications by authors named "T Antonelli"

Doping of a Mott insulator gives rise to a wide variety of exotic emergent states, from high-temperature superconductivity to charge, spin, and orbital orders. The physics underpinning their evolution is, however, poorly understood. A major challenge is the chemical complexity associated with traditional routes to doping.

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Article Synopsis
  • * A photoemission and density-functional theory study was conducted on three compounds to explore how different intercalant elements affect their electronic structures at both the bulk and surface levels.
  • * Findings reveal that as the atomic number of the intercalant increases, there’s greater hybridization with NbS-derived conduction states, resulting in the formation of new electronic states at the Fermi level, which explains previously observed anomalous states and sheds light on tuning magnetic interactions.
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Background: The association between obesity and infectious diseases is increasingly reported in the literature. There are scarce studies on the association between obesity and urinary tract infection after kidney transplantation (KTx). These studies defined obesity based on body mass index, and their results were conflicting.

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Closing the band gap of a semiconductor into a semimetallic state gives a powerful potential route to tune the electronic energy gains that drive collective phases like charge density waves (CDWs) and excitonic insulator states. We explore this approach for the controversial CDW material monolayer (ML) TiSe by engineering its narrow band gap to the semimetallic limit of ML-TiTe. Using molecular beam epitaxy, we demonstrate the growth of ML-TiTeSe alloys across the entire compositional range and unveil how the (2 × 2) CDW instability evolves through the normal state semiconductor-semimetal transition via angle-resolved photoemission spectroscopy.

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Spin-valley locking is ubiquitous among transition metal dichalcogenides with local or global inversion asymmetry, in turn stabilizing properties such as Ising superconductivity, and opening routes towards 'valleytronics'. The underlying valley-spin splitting is set by spin-orbit coupling but can be tuned via the application of external magnetic fields or through proximity coupling. However, only modest changes have been realized to date.

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