*Definition of geodesic convexity (Section C of Weisel 2012) *. The geodesic of
$$ Q_{t} = Q_{1}^{1/2}(Q_{1}^{-1/2}Q_{2}Q^{-1/2}{1})^{t}Q{1}^{1/2}, \quad t \in [0,1]$$
This can similarly be extended for the tuple $S^{m}{++} \times S^{p}{++}$
TEX = pdflatex -interaction nonstopmode | |
BIB = bibtex | |
GS = gs -q -dNOPAUSE -dBATCH -sDEVICE=pdfwrite | |
COVER = cover | |
PAPER = paper_main | |
SUPP = paper_supp | |
BIBFILE = temp.bib | |
BUNDLE = paper_bundle.pdf |
PANDOC = pandoc | |
%.html: %.md style.css Makefile | |
$(PANDOC) -c style.css -s -f markdown -t html --standalone -o $@ $< | |
%.odt: %.md Makefile | |
$(PANDOC) --standalone -f markdown -t odt -o $@ $< | |
%.epub: %.md Makefile | |
$(PANDOC) -o $@ $< |
*Definition of geodesic convexity (Section C of Weisel 2012) *. The geodesic of
$$ Q_{t} = Q_{1}^{1/2}(Q_{1}^{-1/2}Q_{2}Q^{-1/2}{1})^{t}Q{1}^{1/2}, \quad t \in [0,1]$$
This can similarly be extended for the tuple $S^{m}{++} \times S^{p}{++}$
try: | |
from urllib.parse import quote # Py 3 | |
except ImportError: | |
from urllib2 import quote # Py 2 | |
import os | |
import sys | |
BLOG_DIR = os.environ['BLOG_DIR'] | |
# BLOG_DIR = '/Users/cscorley/git/cscorley.github.io/' |
--- | |
$if(date)$ | |
Date: $date$ | |
$endif$ | |
$if(title)$ | |
Title: $title$ | |
$endif$ | |
--- | |
<div> |
# Notes on perturbation integration and segregation | |
(Notes can be permanently found/updated here http://bit.ly/1JbGEki) | |
Consider three distinct aspects of using functional segregation and integration in functional neuroimaging. Some thoughts after reading [Deco et al., 2015](http://www.nature.com/nrn/journal/v16/n7/full/nrn3963.html) | |
#### I. What do these information theoretic metrics mean for a fixed and known system (i.e. network) that consists of $p$ interacting units ? |
Philip Guo summarized the problem quite well in Burrito. Are there any modern solutions to this problem ?
A nice collection of all tools provided by @pditommaso. Some subset worth trying out.
So far Sumatra/noworkflow/recipy/WorldMake appear to care most about provenance tracking; nextflow appears to be a very promising upgrade to gnu make for containerized data science pipelines.
Note: The betweenness centrality used here is based on the shortest path implementation in the Brain Connectivity Toolbox.
Take-ways: Network metric is unstable in two ways: A small change to the threshold leads to huge change in metric. As a result it is also highly unstable between monte-carlo trials as well. **Theory says that all shortest path based metrics are similarly unstable, with unpredictably large variance. Thus z-scores and t-tests don't even converge to any distribution let alone a normal one. There
var TreeId = "your_tree_id_here"; | |
var Filename = "output_filename"; | |
var http =require('http'); | |
var fs = require('fs'); | |
var request = require('request'); | |
var exec = require('child_process').exec; | |
var header = fs.readFileSync('parts/header.tex', 'utf8'); | |
var footer = fs.readFileSync('parts/footer.tex', 'utf8'); | |
var replacements = { '\\\\begin\\{center\\}\\\\rule\\{3in\\}\\{0\\.4pt\}\\\\end\\{center\\}': '\\hr', '\\\\section\{([^\}]*)\}\\\\label\{([^\}]*)\}\\n\\n([^\.]*[\\.\\\'\\\'\\?\\!]*)\\s': '\\finishchapter\n\\section{$1}\\label{$2}\n\\setupchapter\n\\newthought{$3} ' }; |