Complex Systems Studies – Telegram
Complex Systems Studies
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What's up in Complexity Science?!
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@ComplexSys

#complexity #complex_systems #networks #network_science

📨 Contact us: @carimi
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This free course on #fractals starts in 5 days, open to anyone with basic #math skills.

You don't even have to be an academic. That's part of our ethos: making a world-class #complex #systems education available to anyone with an internet connection.

https://t.co/s1DWIcJZln
🎞 These “excitable” bee waves obey the same math as electrical waves in nerve & heart tissue and BZ chem reaction. https://t.co/5rs9CmwneL
🍓 "Principal components regression meets the lasso". We have just uploaded our new R package ``pcLasso'' to CRAN!
https://t.co/wbgav1zdbf We hope that people find it useful and promise to respond to help requests, bug reports and suggestions for new features.

Rob Tibshirani
🧰 Causal Inference
https://www.coursera.org/learn/causal-inference

This course offers a rigorous mathematical survey of causal inference at the Master’s level. Inferences about causation are of great importance in science, medicine, policy, and business. This course provides an introduction to the statistical literature on causal inference that has emerged in the last 35-40 years and that has revolutionized the way in which statisticians and applied researchers in many disciplines use data to make inferences about causal relationships. We will study methods for collecting data to estimate causal relationships. Students will learn how to distinguish between relationships that are causal and non-causal; this is not always obvious. We shall then study and evaluate the various methods students can use — such as matching, sub-classification on the propensity score, inverse probability of treatment weighting, and machine learning — to estimate a variety of effects — such as the average treatment effect and the effect of treatment on the treated. At the end, we discuss methods for evaluating some of the assumptions we have made, and we offer a look forward to the extensions we take up in the sequel to this course.
💡 "Econophysics: Still fringe after 30 years?" (by Jean-Philippe Bouchaud): https://t.co/I8VDyxZEx0

"Some personal reflections on the past and future of "econophysics", to appear in Europhysics News"
🔺 The emergence of consensus: a 10-page review / introduction to micro-macro connection, role of social networks, social contagion, committed minorities, etc. With models and empirical results.

https://arxiv.org/ct?url=https%3A%2F%2Fdx.doi.org%2F10.1098%252Frsos.172189&v=1ca06282
💡 Glauber's dynamics.

Never heard of Glauber or his eponymous dynamics? This beautiful post is a must read. A master class in science exposition

http://bit-player.org/2019/glaubers-dynamics
🧰 Some materials (homework assignments, quizzes, midterm, a few other things) from the spring 2018 edition of my undergraduate course on networks: https://t.co/zd8XcsaVEM

I discuss the development, evolution, & philosophy of my course in this book chapter:
https://t.co/tyyhBcrlPG

Over a period of several years, I designed and taught an undergraduate course on networks. The course, which I first taught in the Mathematical Institute at the University of Oxford, was initially a masters-level course. It then evolved into a course for both undergraduate and graduate students, and it now also exists in the form of an advanced undergraduate course at UCLA. In this article, I discuss my networks course, its evolution, and my experiences teaching it. I hope to help encourage people, especially those in mathematics and mathematical-science departments, to design and teach introductory courses in network analysis. Such courses complement existing courses in graph theory and other subjects, and they give a chance to introduce students to state-of-the-art topics that apply ideas from graph theory, probability, dynamical systems, and other important subjects in fascinating ways. Group projects are particularly beneficial for courses on network analysis, as they take advantage of the subject’s accessibility, provide a valuable gateway for undergraduates to conduct research in (both theoretical and applied) mathematics, and open the door to longer-term research projects.
25th Annual IASBS Meeting on Condensed Matter Physics

June 13-14, 2019 (23-24 Khordad 1398)


The aim of this meeting is to bring together experimental and theoretical scientists in the field of condensed matter physics to present their recent results and to make an atmosphere for discussion. Moreover it is a good opportunity for young researchers and students to gain experience by joining this community.


Deadline for registration and paper submission:
March 19, 2019 (28 Esfand, 1397)

https://iasbs.ac.ir/seminars/condmat-meeting/m25/
how the spread of ideas in academia is shaped by where they are born: https://t.co/HVhDMEyUdw paper: https://t.co/EmMIFAWGNQ
💡Balance Theory: From Psychology to Cancer Dynamics

http://facultymembers.sbu.ac.ir/jafari/2019/01/12/balance-theory-cancer/
Santa Fe Institute is launching a new Translational Fellows program. The program targets early career PhDs who are interested in pursuing a more applied career path. The goal is to help these individuals become leaders in the application of complexity beyond academia. During their two years at SFI, Translational Fellows will study complexity and work to help foster the adoption of complexity insights in the broader world. For a program denoscription and application requirements see: santafe.edu/tfapply.

We would greatly appreciate your help forwarding this opportunity to anyone in your network who might be interested, or who might know interested people. Please contact translational@santafe.edu with any questions.

Thank you,

The Complexity Explorer Team and The Santa Fe Institute