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Connectomics, graph theory, and complexity
Isaac Pope edited this page Nov 20, 2025
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NOTE: This page is unfinished, use the Evernote instead
Graph theory is a branch of mathematics that can be used to understand connectomes. This note provides references on the basic principles of connectomics as well as graph theory.
- Introduction to Complexity (Santa Fe Institute 2015)
- Interactive complexity explainer (2019)
- Probabilistic graph models (Stanford 2023)
- Chaos and nonlinear dynamics lectures (Steven Strogatz 2014)
- Principles of complex systems (2023)
- History of complexity and network science video
- Dynamical systems in neuroscience video series (2021)
- Differential equations and dynamical systems video series (2022)
- Computational neuroscience animation channel
- Theoretical physics lecture notes and problems (Cambridge 2013)
- Graphs and networks resource set (2017)
- Brain networks (Russ Poldrack 2018)
- Logistic maps, fractals, and chaos video (Veritasium 2020)
- Collection of explorable explainers
- Network neuroscience
- Information theory and self-organisation lectures (2020)
- Chaos lectures (2017)
- Network diffusion (via the graph Laplacian) explainer (2021)
- Fornito, Zalesky, Bullmore - Fundamentals of Brain Network Analysis (2016)
- Albert-László Barabási - Network Science (2015)
- Mark Newman - Networks (2018)
- Michele Coscia - The Atlas for the Aspiring Network Scientist (2025)
- Parr, Pezzulo, Friston - Active Inference (2022)
- Porter and Gleeson - Dynamical Systems on Networks (2016)
- Newman and Barabási - The Structure and Dynamics of Networks (2006)
- Easley and Kleinberg - Networks, Crowds, and Markets (2010)
- Wasserman and Faust - Social Network Analysis (1994)
- Béla Bollobás - Random Graphs (2011)
- Eugene Izhikevich - Dynamical Systems in Neuroscience (2006)
- 0.0 Home
- 0.1 Neuroscience fundamentals
- 0.2 Reproducible Science
- 0.3 MRI Physics, BIDS, DICOM, and data formats
- 0.4 Introduction to Diffusion MRI
- 0.5 Introduction to Functional MRI
- 0.6 Measuring functional and effective connectivity
- 0.7 Connectomics, graph theory, and complexity
- 0.8 Statistical and Mathematical Tidbits
- 0.9 Introduction to Psychopathology
- 0.10 Introduction to Genetics and Bioinformatics
- 0.11 Introduction to Programming
- 1.0 Working on the Cluster
- 2.0 Programming Languages
- 2.1 Python
- 2.2 MATLAB
- 2.3 R and RStudio
- 2.4 Programming Intro Exercises
- 2.5 git and GitHub
- 2.6 SLURM and Job Submission
- 3.0 Neuroimaging Tools and Packages
- 3.1 BIDS
- 3.2 FreeSurfer
- 3.2.1 Qdec
- 3.3 FSL
- 3.3.1 ICA-FIX
- 3.4 Connectome Workbench/wb_command
- 3.5 fMRIPrep
- 3.6 QSIPrep
- 3.7 HCP Pipeline
- 3.8 tedana
- 4.0 Quality control
- 4.1 MRIQC
- 4.2 Common Artefacts
- 4.3 T1w
- 4.4 rs-fMRI
- 5.0 Specialist Tools
- 6.0 Putting it all together
- 7.0 Data management