Publications

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Yan, L, Ravasio R, Brito C, Wyart M.  2017.  Architecture and coevolution of allosteric materials. Proceedings of the National Academy of Sciences. 114:2526–2531., Number 10: National Academy of Sciences Abstract

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Yan, L, Ravasio R, Brito C, Wyart M.  2018.  Principles for optimal cooperativity in allosteric materials. Biophysical journal. 114:2787–2798., Number 12: Cell Press Abstract

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Wodak, SJ, Paci E, Dokholyan NV, Berezovsky IN, Horovitz A, Li J, Hilser VJ, Bahar I, Karanicolas J, Stock G, others.  2019.  Allostery in its many disguises: from theory to applications. Structure. : Cell Press Abstract

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Vainstein, MH, Brito C, Arenzon JJ.  2014.  Percolation and cooperation with mobile agents: Geometric and strategy clusters. Physical Review E. 90:022132., Number 2: APS Abstract

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Silvestrini, M, Brunnet LG, Disconzi M, Brito C.  2015.  Initial condition dependence and wave function confinement in the Schrödinger–Newton equation. General Relativity and Gravitation. 47:129., Number 11: Springer Abstract

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Silvestrini, M, Brito C.  2017.  Wettability of reentrant surfaces: a global energy approach. Langmuir. 33:12535–12545., Number 43: American Chemical Society Abstract

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Ravasio, R, Flatt SM, Yan L, Zamuner S, Brito C, Wyart M.  2019.  Mechanics of allostery: contrasting the induced fit and population shift scenarios. Biophysical journal. 117:1954–1962., Number 10: Cell Press Abstract

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Lazzari, D, Brito C.  2019.  Geometric and chemical nonuniformity may induce the stability of more than one wetting state in the same hydrophobic surface. Physical Review E. 99:032801., Number 3: American Physical Society Abstract

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Kapteijns, G, Ji W, Brito C, Wyart M, Lerner E.  2019.  Fast generation of ultrastable computer glasses by minimization of an augmented potential energy. Physical Review E. 99:012106., Number 1: American Physical Society Abstract

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Ikeda, H, Brito C, Wyart M.  2020.  Infinitesimal asphericity changes the universality of the jamming transition, 2020. Journal of Statistical Mechanics: Theory and Experiment. 2020(3):033302.: IOP Publishing AbstractWebsite

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The jamming transition of non-spherical particles is fundamentally different from the spherical case. Non-spherical particles are hypostatic at their jamming points, while isostaticity is ensured in the case of the jamming of spherical particles. This structural difference implies that the presence of asphericity affects the critical exponents related to the contact number and the vibrational density of states. Moreover, while the force and gap distributions of isostatic jamming present power-law behaviors, even an infinitesimal asphericity is enough to smooth out these singularities. In a recent work (Brito et al 2018 Proc. Natl Acad. Sci. 115 11736–41), we have used a combination of marginal stability arguments and the replica method to explain these observations. We argued that systems with internal degrees of freedom, like the rotations in ellipsoids, or the variation of the radii in the case of the breathing particles fall in the same universality class. In this paper, we review comprehensively the results about the jamming with internal degrees of freedom in addition to the translational degrees of freedom. We use a variational argument to derive the critical exponents of the contact number, shear modulus, and the characteristic frequencies of the density of states. Moreover, we present additional numerical data supporting the theoretical results, which were not shown in the previous work.

Ikeda, H, Brito C, Wyart M, Zamponi F.  2020.  Jamming with Tunable Roughness, May. Phys. Rev. Lett.. 124:208001.: American Physical Society AbstractWebsite

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Henkes, S, Brito C, Dauchot O.  2012.  Extracting vibrational modes from fluctuations: a pedagogical discussion. Soft Matter. 8:6092–6109., Number 22: Royal Society of Chemistry Abstract

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Henkes, S, Brito C, Dauchot O, Van Saarloos W.  2010.  Local coulomb versus global failure criterion for granular packings. Soft Matter. 6:2939–2943., Number 13: Royal Society of Chemistry Abstract

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Gavazzoni, C, Silvestrini M, Brito C.  2021.  Modeling oil–water separation with controlled wetting properties. The Journal of Chemical Physics. 154:104704., Number 10 AbstractWebsite

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Fetter, F, Gamermann D, Brito C.  2021.  On the stability of the Brazilian presidential regime: A statistical analysis. Physica A: Statistical Mechanics and its Applications. 571:125832. AbstractWebsite

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Brazil’s presidential system is characterized by the existence of many political parties that are elected for the Chamber of Deputies and unite in legislative coalitions to form a majority. Since the re-democratization in 1985, Brazil has had 8 direct presidential elections, among which there were two impeachments of the elected presidents. In this work we identify clear differences between stable presidential periods and Legislative terms with an impeachment by analyzing the votes that took place in the Chamber of Deputies from 1991 to 2019. Our statistical analysis are blind to the content of the bills. We start by measuring the cohesion of the parties and the congress for each bill. We then quantify the agreement between the votes of congressmen and observe that there is a stronger polarization among congressmen during legislative periods where there was no impeachment, referred here as stable legislative periods. Using clustering algorithms, we are able to associate these polarized groups observed during the stable periods with the opposition to the government and government base. For periods with an impeachment, the data shows that the congress split up in more than two groups. To characterize the impeachment of Collor and Dilma Rousseff (in 1992 and 2016, respectively) we analyze how the agreement between congressmen and the government evolved over time and we also propose a division of the congressmen in three groups. We identified that, in periods with an impeachment, the third group aligns itself against the president.

Ferrari, NC, Martell R, Okido DH, Romanzini G, Magnan V, Barbosa MC, Brito C.  2018.  Geographic and gender diversity in the Brazilian Academy of Sciences. Anais da Academia Brasileira de Ciências. 90:2543–2552., Number 2: Academia Brasileira de Ciências Abstract

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Fernandes, HCM, Vainstein MH, Brito C.  2015.  Modeling of droplet evaporation on superhydrophobic surfaces. Langmuir. 31:7652–7659., Number 27: American Chemical Society Abstract

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DeGiuli, E, Lerner E, Brito C, Wyart M.  2014.  Force distribution affects vibrational properties in hard-sphere glasses. Proceedings of the National Academy of Sciences. 111:17054–17059., Number 48: National Academy of Sciences Abstract

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Chen, K, Ellenbroek WG, Zhang Z, Chen DTN, Yunker PJ, Henkes S, Brito C, Dauchot O, Van Saarloos W, Liu AJ, others.  2010.  Low-frequency vibrations of soft colloidal glasses. Physical review letters. 105:025501., Number 2: APS Abstract

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Brito, C, Wyart M.  2007.  Heterogeneous dynamics, marginal stability and soft modes in hard sphere glasses. Journal of Statistical Mechanics: Theory and Experiment. 2007:L08003., Number 08: IOP Publishing Abstract

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Brito, C, Ikeda H, Urbani P, Wyart M, Zamponi F.  2018.  Universality of jamming of nonspherical particles. Proceedings of the National Academy of Sciences. 115:11736–11741., Number 46: National Academy of Sciences Abstract

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Brito, C, Wyart M.  2009.  Geometric interpretation of previtrification in hard sphere liquids. The Journal of chemical physics. 131:149., Number 2: American Institute of Physics Abstract

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Brito, C, Pavani D, Lima Jr P.  2015.  Meninas na Ciência: atraindo jovens mulheres para carreiras de Ciência e Tecnologia. Revista Gênero. 16, Number 1 Abstract

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