Critical Phenomena in Natural Sciences: Chaos, Fractals, Selforganization and Disorder: Concepts and Tools
By Didier Sornette. 2000
1,474 citations recorded by the source corpus.
Subfields: Economics and Econometrics, Statistical and Nonlinear Physics
View Paper: https://www.semanticscholar.org/paper/6c6b227435ec35b6432fa91da46982a201df3ef1
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In Economics and Econometrics
- Matjaz Perc
- Aaron Clauset
- Yogesh Virkar
- V. Pisarenko
- Deborah Balk
- Christopher Small
- Christopher D. Elvidge
- M. Montgomery
In Statistical and Nonlinear Physics
- Matjaz Perc
- Mark Newman
- Aaron Clauset
- H. Eugene Stanley
- Yogesh Virkar
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- Jure Leskovec
- Christopher Small
Citations in the corpus
- Dragon-Kings, Black Swans and the Prediction of Crises (2009, background): “Mathematically, large stock market crashes are the social analogues of so-called critical points studied in the statistical physics community in relation to magnetism, melting, and other phase transformation of solids, liquids, gas and other phases of matter [2].”
- Critical Market Crashes (2003, neutral): “The results obtained in Johansen and Sornette (1998, 2000a, 2001c, 2002) can be summarized as follows: 1.”
- Characterization of the Frequency of Extreme Earthquake Events by the Generalized Pareto Distribution (2000, methodology): “The normalized difference equals (<ξ>SZ - <ξ>MORZ)/((σSZ)2 + (σMORZ)2)1/2 = 7.26 8 8 which corresponds to the Gaussian probability of excess ε ≅ 2×10-13 (note that fluctuations of 1/ξ are asymptotically Gaussian (Sornette et al., 1996; Sornette, 2000)).”
- On the power of generalized extreme value (GEV) and generalized Pareto distribution (GPD) estimators for empirical distributions of stock returns (2006, background): “This almost-but-not-quite Lévy stable description explains (in part) the slow convergence of the returns distribution to the Gaussian law under time aggregation (Sornette 2000).”
- Stochastic Process Methods with an Application to Budgetary Data (2011, background): “Important examples for economics include stock markets (Sornette 2003) and growth processes, such as firms, universities, cities, and countries (Gabaix 1999; Podobnik et al. 2009); political science examples include forms of cooperation and conflict (Richardson 1948; Cederman 2003; Biggs 2005).”
- The principles of collective animal behaviour (2006, background): “…and Prigogine the unifying theory was the thermodynamics of open systems; for Bak (1996) it was self-organized criticality and sand piles; for Sornette (2004) it is the generalization of the normal distribution to power law distributions; for Kauffman (1993) it is Boolean networks; and for…”
- The distribution of wealth and …scal policy in economies with …nitely lived agents (2008, neutral): “stochastic di¤erence equations produce stationary distributions which are Pareto; see e.g., Sornette (2000) for a survey.”
- The Matthew effect in empirical data (2014, background): “While many different physical mechanisms may be at the origin of power laws in complex systems, yielding possibly widely different exponents μ [6, 7, 86], preferential attachment is certainly one viable candidate.”
- Effect of microstructural length scales on spall behavior of copper (2004, background): “Empirically, from scaling laws related to critical phenomena, [ 19 ] the shapes of the curves follow the approximate functional form”
- Power-law distributions in binned empirical data (2012, background): “ whose populations are roughly 1000 times larger than the average. Extensive discussions of this and other properties of power laws can be found in reviews by Mitzenmacher [21], Newman [23], Sornette [33] and Gabaix [13]. Mathematically, a quantity x obeys a power law if it is drawn from a probabili”