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1
Intro
2
Complexity from simple interaction
3
Emergence from simple interaction
4
Selforganization
5
Adaptability
6
Nonlinear dynamics
7
Percolation
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Properties at critical points
9
What physicists do
10
Thermal fluctuations
11
Skewness
12
Power spectrum
13
Scale invariance
14
Selfregulation
15
Governing Equations
16
Heat Diffusion Equation
17
Greenhouse Effect
18
Climate Change
Description:
Explore a comprehensive lecture on the loss of self-organization in Earth's climate, presented by Juan Claudio Toledo-Roy from the Instituto de Ciencias Nucleares & Centro de Ciencias de la Complejidad at Universidad Nacional Autónoma de Mexico. Delve into the analysis of global temperature data using time series analysis tools to investigate signs of dynamical transitions in the Earth's climate system. Examine significant changes in correlation structures, power spectra, and autocorrelation functions of temperature records from 1880 to 2010. Compare findings to Lovelock's Daisyworld model to understand the implications for planetary homeostasis and self-regulation. Gain insights into complex systems, emergent properties, and the potential loss of self-regulatory stability in Earth's global climatic system due to climate change. Cover topics including complexity, emergence, self-organization, nonlinear dynamics, percolation, critical points, thermal fluctuations, power spectrum analysis, scale invariance, and the greenhouse effect. Read more

Loss of Self-Organization in Earth's Climate

Santa Fe Institute
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