Publications

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Anteneodo, C, Brito C, Alves-Brito A, Alexandre SS, D'Avila BN, Menezes DP.  2020.  Brazilian physicists community diversity, equity, and inclusion: A first diagnostic, Jun. Phys. Rev. Phys. Educ. Res.. 16:010136.: American Physical Society AbstractWebsite

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Anteneodo, C, Brito C, Alves-Brito A, Alexandre SS, D'Avila BN, Menezes DP.  2019.  Brazilian physicists community diversity, equity and inclusion: a first diagnostic. arXiv preprint arXiv:1912.08082. Abstract

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Balbuena, C, Brito C, Stariolo DA.  2014.  Structural signatures of (two) characteristic dynamical temperatures in lithium metasilicate. Journal of Physics: Condensed Matter. 26:155104., Number 15: IOP Publishing Abstract

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Borba, JR, Brito C, Migowski P, Vale TB, Stariolo DA, Teixeira SR, Feil AF.  2013.  Quantitative characterization of hexagonal packings in nanoporous alumina arrays: a case study. The Journal of Physical Chemistry C. 117:246–251., Number 1: American Chemical Society Abstract

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Bravi, B, Ravasio R, Brito C, Wyart M.  2020.  Direct coupling analysis of epistasis in allosteric materials, 2020/03/02. PLOS Computational Biology. 16(3):e1007630-.: Public Library of Science AbstractWebsite

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Author summary Allostery in proteins is the property of highly specific responses to ligand binding at a distant site. To inform protocols of de novo drug design, it is fundamental to understand the impact of mutations on allosteric regulation and whether it can be predicted from evolutionary correlations. In this work we consider allosteric architectures artificially evolved to optimize the cooperativity of binding at allosteric and active site. We first characterize the emergent pattern of epistasis as well as the underlying mechanical phenomena, finding the four types of epistasis (Synergistic, Sign, Antagonistic, Saturation), which can be both short or long-range. The numerical evolution of these allosteric architectures allows us to benchmark Direct Coupling Analysis, a method which relies on co-evolution in sequence data to infer direct evolutionary couplings, in connection to allostery. We show that Direct Coupling Analysis predicts quantitatively point mutation costs but underestimates strong long-range epistasis. We provide an argument, based on a simplified model, illustrating the reasons for this discrepancy. Our analysis suggests neural networks as more promising tool to measure epistasis.

Brito, C, Vitelli V, Dauchot O.  2016.  Orientational order at finite temperature on curved surfaces. Journal of Statistical Mechanics: Theory and Experiment. 2016:033208., Number 3: IOP Publishing Abstract

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Brito, C, Parisi G, Zamponi F.  2013.  Jamming transition of randomly pinned systems. Soft Matter. 9:8540–8546., Number 35: Royal Society of Chemistry Abstract

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Brito, C, Parisi G, Zamponi F.  2013.  Jamming transition of randomly pinned systems. Soft Matter. 9:8540–8546., Number 35: Royal Society of Chemistry 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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Brito, C, Lerner E, Wyart M.  2018.  Theory for swap acceleration near the glass and jamming transitions for continuously polydisperse particles. Physical Review X. 8:031050., Number 3: American Physical Society Abstract

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Brito, C, Dauchot O, Biroli G, Bouchaud J-P.  2010.  Elementary excitation modes in a granular glass above jamming. Soft Matter. 6:3013–3022., Number 13: Royal Society of Chemistry Abstract

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Brito, C, Wyart M.  2006.  On the rigidity of a hard-sphere glass near random close packing. EPL (Europhysics Letters). 76:149., Number 1: IOP Publishing Abstract

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Brito, C, Aranson IS, Chaté H.  2003.  Vortex glass and vortex liquid in oscillatory media. Physical review letters. 90:068301., Number 6: APS 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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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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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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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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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.

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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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