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Daniele Bartolucci

Researcher at University of Rome Tor Vergata

Publications -  69
Citations -  1329

Daniele Bartolucci is an academic researcher from University of Rome Tor Vergata. The author has contributed to research in topics: Uniqueness & Bounded function. The author has an hindex of 17, co-authored 64 publications receiving 1207 citations. Previous affiliations of Daniele Bartolucci include Sapienza University of Rome & Leonardo.

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Liouville Type Equations with Singular Data¶and Their Applications to Periodic Multivortices¶for the Electroweak Theory

TL;DR: In this article, the authors obtained a concentration-compactness principle for the following class of mean field equations, where (m,g) is a compact 2-manifold without boundary, 0 0.
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Profile of Blow-up Solutions to Mean Field Equations with Singular Data

TL;DR: In this article, the authors considered a class of Mean Field equations of Liouville-type on compact surfaces involving singular data assigned by Dirac measures supported at finitely many points (the so called vortex points).
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Supercritical conformal metrics on surfaces with conical singularities

TL;DR: In this paper, the authors studied the problem of prescribing the Gaussian curvature on surfaces with conical singularities in supercritical regimes using a Morse-theoretical approach.
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The Liouville Equation with Singular Data: A Concentration-Compactness Principle via a Local Representation Formula☆

TL;DR: For a bounded domain Ω⊂ R 2, the authors established a concentration-compactness result for the following class of singular Liouville equations: −Δu =e u −4π ∑ j=1 m α j δ p j in Ω where pj∈Ω, αj>0 and δpj denotes the Dirac measure with pole at point pj, j= 1, m.
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An Improved Geometric Inequality via Vanishing Moments, with Applications to Singular Liouville Equations

TL;DR: In this paper, the authors consider a class of singular Liouville equations on compact surfaces motivated by the study of Electroweak and Self-Dual Chern-Simons theories, the Gaussian curvature prescription with conical singularities and Onsager's description of turbulence.