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Site Maintainer README for bioconductor.org

This git repo has been retired and is no longer active. The canonical location for the web site code is https://hedgehog.fhcrc.org/bioconductor/trunk/bioconductor.org

You can setup git-svn on it by cloning this repository and running

git svn init https://hedgehog.fhcrc.org/bioconductor/trunk/bioconductor.org
git svn fetch
git update-ref refs/remotes/git-svn refs/remotes/origin/master

Then after committing code locally run the following to commit the changes SVN and push the commits back to GitHub.

# commit code to svn
git svn dcommit

# push code to github
git push

Unix-ish Developer Required Software

Required software

NOTE: Before reading the following instructions you may want to consider installing the web site as a Docker container. See the instructions here.

Ruby

The site requires ruby 2.2.2 or newer.

There are numerous issues on various platforms when attempting to install appropriate versions of ruby and the necessary ruby packages. The simplest way around all of this is to use rbenv, which allows you to switch between various ruby versions and avoids conflicts between them. NOTE: rbenv works on Unix only; if you are on Windows, skip to the Windows section.

On ubuntu, before proceeding, make sure the libsqlite3-dev package is installed (sudo apt-get install libsqlite3-dev).

The following instructions are adapted from the rbenv page. It's worth reading this to understand how rbenv works.

Important note: Never use sudo when working with a ruby that has been installed by rbenv. rbenv installs everything in your home directory so you should never need to become root or fiddle with permissions.

  1. Make sure you do not have rvm installed. which rvm should not return anything. If you do have it installed, refer to this page for instructions on removing it.

  2. Check out rbenv into ~/.rbenv.

    $ git clone https://github.com/sstephenson/rbenv.git ~/.rbenv
  3. Add ~/.rbenv/bin to your $PATH for access to the rbenv command-line utility.

    $ echo 'export PATH="$HOME/.rbenv/bin:$PATH"' >> ~/.bash_profile

    Ubuntu Desktop note: Modify your ~/.bashrc instead of ~/.bash_profile.

    Zsh note: Modify your ~/.zshrc file instead of ~/.bash_profile.

  4. Add rbenv init to your shell to enable shims and autocompletion.

    $ echo 'eval "$(rbenv init -)"' >> ~/.bash_profile

    Same as in previous step, use ~/.bashrc on Ubuntu, or ~/.zshrc for Zsh.

  5. Restart your shell so that PATH changes take effect. (Opening a new terminal tab will usually do it.) Now check if rbenv was set up:

    $ type rbenv
    #=> "rbenv is a function"
  6. Install ruby-build, which provides the rbenv install command that simplifies the process of installing new Ruby versions:

    git clone https://github.com/sstephenson/ruby-build.git ~/.rbenv/plugins/ruby-build

Now you need to install ruby. Go to the Ruby Downloads Page to find out what the current stable version is. As of 3/30/2014 it is 2.1.1 so I will use that in further examples, but substitute the current stable version for 2.1.1 in what follows.

To install this version of ruby in rbenv, type

rbenv install 2.1.1

NOTE: this failed for me under Ubuntu 14.04, somehow related to readline. The solution was

curl -fsSL https://gist.github.com/mislav/a18b9d7f0dc5b9efc162.txt | \
    rbenv install --patch 2.1.1

Then, to make this the only version of ruby that you will use, type:

rbenv global 2.1.1

If you want to use different versions of ruby in different contexts, read the rbenv page for more information.

Windows Developer Required Software

  1. Download and run the one-click ruby installer http://rubyinstaller.org/downloads/. Accept all default settings.

  2. Also download and install the Development Kit from http://rubyinstaller.org/downloads/. Be sure and add the bin dir to your path (see devkitvars.bat)

  3. If you don't already have it, be sure and install cygwin and explicitly install rsync. rsync is required for parts of the web site to work.

  4. Install subversion client package. Windows packages are listed here:

    http://subversion.tigris.org/getting.html#binary-packages
    

    I installed the collabnet package, but had to go through an annoying registration process. The other binaries should be fine and might require less hoop jumping. You will need to open a new terminal window to pickup the updated config after installing so that you will be able to use the svn command.

  5. Follow the developer setup instructions below.

Developer Setup

Checkout the bioconductor.org codebase

svn co https://hedgehog.fhcrc.org/bioconductor/trunk/bioconductor.org

Installing Necessary Ruby Packages

Ruby packages are called gems and gem is the program used to install them.

To save time, ensure your ~/.gemrc file contains the text

gem: --no-document

This will ensure that gem does not try to install documentation files that you will not use.

The web site comes with a Gemfile which is similar to an R package DESCRIPTION file in that it lists all dependencies needed. Gemfiles are read by the bundler gem, so install that as follows, prepending sudo if necessary (remember, don't use sudo if your ruby was installed with rbenv:

cd bioconductor.org
gem install bundler

Then, assuming you are in the bioconductor.org working copy, issue this command to install all dependencies, again prepending sudo if necessary:

bundle install

NOTE: this failed installing the pg gem on Ubuntu 14.04; fixed with sudo apt-get install libpq-dev

Build the site

cd bioconductor.org # if you aren't already in the working copy
rake

One step in the build process runs 'nanoc', "a Ruby web publishing system
for building small to medium-sized websites"; it is one of the gems you installed above. If you ever need to run nanoc explicitly:

nanoc compile

To run an abbreviated compile, which does not attempt to build all package pages:

QUICK_NANOC_COMPILE=true nanoc co

Whether run by hand or by rake, the compiled html files are all found in and below output/, an immediate subdirectory of the bioconductor.org/ directory you have been working in.

Start the built-in development server, 'adsf' "A dead-simple file" server:

cd output
adsf

Test in a browser by going to http://localhost:3000/

Overview of site source code

  • README.md :: You are reading this file or a file generated from this file.

  • Rakefile :: A Rakefile is to rake as a Makefile is to make. You can see the available targets by running rake -T in the directory containing Rakefile.

  • Rules :: This is a Ruby syntax file that describes how site content is transformed from its source form into its output form (this is called filtering), what layout to use (layouts are the shared templates), and where to write the output (this is called routing). See the [http://nanoc.stoneship.org/tutorial/](nanoc tutorial) and the [http://nanoc.stoneship.org/manual/](nanoc manual) for details.

  • assets :: This directory is not managed by nanoc. It contains files that do not undergo any filtering, layout-ing, or routing. Contents of the assets directory are copied to the output directory using rsync.

  • config.yaml :: Nanoc configuration file for the bioconductor.org site. This file is written in http://www.yaml.org/.

  • content :: This is where the bulk of the raw (source form) site content lives. Important details:

           - Content always has two related files: a `.yaml` file
             containing item attributes and a `.<extension>` file
             containing the raw source content. You can actually
             use whatever extension you want.
    
           - The default behavior is that a content file like
             `help.md` is filtered into HTML and then written to
             `output/help/index.html`. This scheme allows for
             clean URLs that avoid having a file extension.
    
  • layouts :: This is where the content templates live.

  • lib :: Ruby helper functions and nanoc extensions live here. Files in this directory are automatically loaded by nanoc during site processing.

  • migration :: Documentation and scripts used in the process of migrating the bioconductor.org site from Plone to nanoc.

  • output :: This directory is created when you compile the bioconductor.org site using nanoc. It contains the final static HTML and other assets. Deploying the site means pushing out an update of the contents of output to the live server.

  • scripts :: Helper scripts for managing the site live here.

How to add a page

How to add event

You will use a helper scripts ./scripts/add_event to add event to the site using the following steps:

  1. Always run ./scripts/add_event from the top-level of your website Subversion working copy

  2. Run ./scripts/add_event EVENT_NAME This will create an EVENT_NAME.yaml file in the ./content/help/events/ directory

  3. The default EVENT_NAME.yaml file will look like this:

    title: TITLE FOR EVENT_NAME location: Seattle, WA, USA event_host: FHCRC start: 2010-06-29 end: 2010-06-29 link: text: details and registration url: https://secure.bioconductor.org/EVENT_NAME

  4. Edit the EVENT_NAME.yaml file

  5. Use svn to commit changes and additions by add_event

How to add course material

You will use a helper script ./scripts/course_mgr to add course material to the site. PDF files for labs and presentations as well as course-specific packages and data are not stored in svn. The index pages that describe the course and provide links to the materials are stored in svn. The course_mgr script will help with index file creation and data transfer.

course_mgr workflow and important tips

To add a course, you will typically perform the following steps (each described in detail below):

  1. Always run ./scripts/course_mgr from the top-level of your website Subversion working copy.
  2. Run ./scripts/course_mgr --create COURSE_NAME
  3. Run ./scripts/course_mgr --index COURSE_NAME
  4. Build and preview site
  5. Run ./scripts/course_mgr --push COURSE_NAME
  6. Use svn to commit changes and additions made by course_mgr

Using course_mgr

  1. Generate a skeleton course directory structure.

    ./scripts/course_mgr --create seattle-intro

    This will create a seattle-intro/ directory in the top-level of your website working copy -- do not add this directory or any files within it to svn. Inside will be a course_config.yaml file that will look like this:

    title: The title of the course goes here start_date: 2010-01-27 end_date: 2010-01-29 instructors: ["Someone", "Another"] location: "Seattle, USA" url: https://secure.bioconductor.org/SeattleJan10/ tags: ["intro", "seattle", "package"] description: You can put some description text here. Must be indented.

  2. Put course materials as files and directories into the skeleton directory. For example, you might end up with a directory like that shown below with two subdirectories, packages and presentation-slides, each containing course materials.

    seattle-intro |-- course_config.yaml |-- packages | |-- day1_0.0.1.tar.gz | |-- day2_0.0.1.tar.gz | -- day3_0.0.1.tar.gz -- presentation-slides |-- First-steps-presentation.pdf |-- Microarray-presentation.pdf |-- annotation-presentation.pdf `-- sequence-presentation.pdf

  3. Now you are ready to create the index files.

    ./scripts/course_mgr --index seattle-intro CREATED: content/help/course-notes/2010/01/seattle-intro.(html|yaml) COPIED for preview: src: ./seattle-intro/* dst: output/help/course-notes/2010/01/seattle-intro/ NEXT STEPS:

    This will create a course index content item in content filed appropriately based on the metadata provided in course_config.yaml. It will also copy the files and directories you created into the output directory so that you can do a full preview after compiling the site.

  4. If everything looks good, you can sync the data files to the web server (note that we do not put these files in svn because large data files are not appropriate for svn and they are not likely to change):

    ./scripts/course_mgr --push 2010/seattle-intro
    SYNC:
     src: ./seattle-intro
     dst: biocadmin@staging.bioconductor.org:/loc/www/bioconductor-test.fhcrc.org/help/course-materials/2010/
    NEXT STEPS: svn add/checkin changes in contents
    
  5. Finally, "svn add" the new course index html and yaml files that were generated in the content directory and commit.

Modifying an existing course

You can edit the pages for an existing course by editing the files in ./content. If you need to add or modify data files, run: ./scripts/course_mgr --pull 2010/course_to_modify

This will create a top-level directory called "course_to_modify". You
can then add or modify course material. When finished, run
  ./scripts/course_mgr --push 2010/course_to_modify

If you have changed the .md or .yaml files, do the following:
  cp course_to_modify/course_to_modify.* content/help/course_materials/2010
  svn commit -m "made changes" content/help/course-materials/2010/course_to_modify

Adding course material to the spreadsheet

The page http://www.bioconductor.org/help/course-materials/ is built from the tab-delimited file etc/course_descriptions.tsv.

Add information to this file using a spreadsheet program (Excel, LibreOffice, etc.). Be sure to save in the original tsv format. Note that some spreadsheets insert non-ASCII characters which cause problems. Before committing your changes, check for this in R with:

tools::showNonASCII(readLines("etc/course_descriptions.tsv"))

And if it reports any non-ascii characters (it will show line numbers) fix these in a text editor before committing. Usually the culprit is a non-ascii hyphen that can be replaced with a regular hyphen.

We run an inside FHCRC only test instance of the Bioconductor website at the above URL. The site is rebuilt every ten minutes. Here's an overview of the test site configuration:

  • bioconductor-test.fhcrc.org is a DNS CNAME for merlot2.fhcrc.org.

  • The site is served by the system installed Apache2 instance on merlot2.

  • The scheduled svn checkout and rebuild is handled by the biocadmin user's crontab.

  • biocadmin uses files under ~/bioc-test-web

  • Apache serves the site from /loc/www/bioconductor-test.fhcrc.org

Staging site scheduled update

The biocadmin user's crontab on merlot2 is used to schedule site updates every ten minutes. Below are some details on how the test site is configured.

The site source is located at ~biocadmin/bioc-test-web/bioconductor.org. The deploy_staging Rake task deploys site content to the staging server root on staging.

task :deploy_staging do
  dst = '/loc/www/bioconductor.org'
  site_config = YAML.load_file("./config.yaml")
  output_dir = site_config["output_dir"]
  system "rsync -gvprt --partial --exclude='.svn' #{output_dir}/ #{dst}"
end

An update_site shell script updates from svn, builds the site, and deploys it using Rake.

#!/bin/bash
svn update && rake real_clean default deploy_staging

We keep track of the output of in a local cron.log file and handle log rotation using logrotate. For this we need a config file:

# logrotate.conf
/home/biocadmin/bioc-test-web/cron.log {
  rotate 5
  compress
  daily
}

The following crontab entries are used to schedule site update, deployment, and log rotation (biocadmin user):

PATH=/usr/bin:/bin:/usr/sbin
MAILTO=devteam-bioc@fhcrc.org

# bioconductor-test.fhcrc.org website publishing
,*/10 * * * *  cd $HOME/bioc-test-web;./update_site >> cron.log 2>&1
0    0 * * *  logrotate -s $HOME/bioc-test-web/logrotate.state $HOME/bioc-test-web/logrotate.conf

Staging site SuSE Apache Configuration

A good resource is available http://en.opensuse.org/Apache_Quickstart_HOWTO.

Apache module config

Edit /etc/sysconfig/apache2

Make sure the following modules are listed in the APACHE_MODULES variable:

  • rewrite
  • deflate

One way to add them is to do:

sudo /usr/sbin/a2enmod deflate sudo /usr/sbin/a2enmod rewrite

Apache vhosts config

Edit /etc/apache2/vhosts.d/bioconductor-test.conf

<VirtualHost *:80>
  ServerAdmin devteam-bioc@fhcrc.org
  ServerName bioconductor-test.fhcrc.org

  # DocumentRoot: The directory out of which you will serve your
  # documents. By default, all requests are taken from this directory, but
  # symbolic links and aliases may be used to point to other locations.
  DocumentRoot /loc/www/bioconductor-test.fhcrc.org

  # if not specified, the global error log is used
  ErrorLog /var/log/apache2/bioconductor-test.fhcrc.org-error_log
  CustomLog /var/log/apache2/bioconductor-test.fhcrc.org-access_log combined

  # don't loose time with IP address lookups
  HostnameLookups Off

  # needed for named virtual hosts
  UseCanonicalName Off

  ServerSignature On

  # doc root
  <Directory "/loc/www/bioconductor-test.fhcrc.org">
      # The Options directive is both complicated and important. Please see
      # http://httpd.apache.org/docs-2.2/mod/core.html#options
      # for more information.
      Options FollowSymLinks

      # AllowOverride controls what directives may be placed in .htaccess files.
      AllowOverride FileInfo Indexes

      # Controls who can get stuff from this server.
      Order allow,deny
      Allow from all

      # output compression using mod deflate
      AddOutputFilterByType DEFLATE text/html text/css application/javascript text/x-js
      BrowserMatch ^Mozilla/4 gzip-only-text/html
      BrowserMatch ^Mozilla/4\.0[678] no-gzip
      BrowserMatch \bMSIE !no-gzip !gzip-only-text/html
  </Directory>
</VirtualHost>

TODO Add apache2 to rc startup config

Start apache using /etc/init.d/apache2 re

Staging site nginx installation

We will most likely deploy the test and production sites using Apache2. A first test setup was configured using nginx. The details follow.

./configure \
  --user=nginx \
  --group=nginx \
  --with-http_ssl_module \
  --with-http_gzip_static_module

make
sudo make install

nginx paths:

path prefix: "/usr/local/nginx" binary file: "/usr/local/nginx/sbin/nginx" configuration file: "/usr/local/nginx/conf/nginx.conf" error log file: "/usr/local/nginx/logs/error.log" http access log file: "/usr/local/nginx/logs/access.log"

creating an nginx user (SuSE Linux)

 sudo useradd -c "nginx worker" -d /usr/local/nginx -s /bin/false \
              -g www -G www nginx

nginx config

Followed basic config.

user  nginx www;
gzip  on;
gzip_types text/plain text/css text/javascript;

server {
    listen       80;
    server_name  merlot2.fhcrc.org www.merlot2.fhcrc.org;

    #charset koi8-r;

    #access_log  logs/host.access.log  main;

    location / {
        root   sites/bioconductor.org;
        index  index.html index.htm;
    }

Started nginx as: sudo /usr/local/nginx/sbin/nginx

How to test for broken links

You can run wget as shown below to get a report on 404s for the site. Note that this runs against the staging site so will have a lot of false positives.

wget -r --spider -U "404 check with wget" -o wwwbioc.log http://bioconductor-test.fhcrc.org

*** 404 report for bioconductor-test.fhcrc.org (Tue May 25 09:07:49 2010)

# TO FIX
## depends on packages, etc.
http://bioconductor-test.fhcrc.org/packages/release/bioc/
http://bioconductor-test.fhcrc.org/about/publications/compendia/genemetaex/GeneMetaEx_1.0.0.tar.gz
http://bioconductor-test.fhcrc.org/about/publications/compendia/golubrr/GolubRR_1.3.1.tar.gz
http://bioconductor-test.fhcrc.org/help/workflows/flowcytometry/flowWorkFlow.pdf
http://bioconductor-test.fhcrc.org/about/publications/compendia/CompStatViz/CompStatViz_2.0.1.zip
http://bioconductor-test.fhcrc.org/about/publications/compendia/golubrr/GolubRR_1.3.1.zip
http://bioconductor-test.fhcrc.org/help/bioconductor-packages/
http://bioconductor-test.fhcrc.org/about/publications/compendia/CompStatViz/CompStatViz_2.0.1.tar.gz
http://bioconductor-test.fhcrc.org/help/docs/papers/2003/Compendium/golubEsets_1.0.tar.gz
http://bioconductor-test.fhcrc.org/help/workflows/flowcytometry/tutorial.mpeg
http://bioconductor-test.fhcrc.org/help/workflows/flowcytometry/dataFiles.tar

Note on launching the new site

Discuss production setup with Dirk

DNS

You want to set things up so that you can move to the new site or revert to current quickly. Dirk should be able to suggest a way to achieve this. Ideally, you would not change the bioconductor.org DNS record as this can take awhile to propagate and doesn't give a quick way to revert.

Site monitoring and alerting

I imagine PHS IT has some monitoring that can be put in place for the new site. Would also make sense to add an external monitor so that you will know if the site becomes unreachable from the outside.

Squid

I'm not sure what the current status is w.r.t. to Squid proxy/cache. With the new setup, I would anticipate that a reasonable web server running Apache will be enough for the load and that if more throughput or redundancy is desired, setting up a second server and load balancing would be a good next step.

Optimize redirects

Currently the redirects are defined using Apache's mod_rewrite in a top-level .htaccess file. This has the advantage of allowing easy revision of the rewrite rules via svn that are picked up by Apache on site update. The downside is that using .htaccess files is suboptimal in terms of performance. So before the site is launched, consider the following changes:

  1. Copy the directives in the top-level .htaccess file to the site's vhost config /etc/apache2/vhosts.d/bioconductor-test.conf.

  2. Remove the .htaccess file

  3. Edit the same vhosts.d config file to set Options to None for the top-level directory. This should disable .htaccess files as it isn't enough just to remove the .htaccess file itself.

Testing the staging site

Use a few days worth of access logs

Extract paths from a few days of access logs (make sure to filter for 200 responses) and "replay" these against the staging site. This should give a good idea of whether the redirects are doing enough and whether or not basic repository structure has been appropriately mirrored.

Use wget to test for broken links on the site

wget -r -l 20 --spider -U "404 check with wget" -o wwwbioc.log http://bioconductor-test.fhcrc.org

Work with Dirk to make the staging site available on the internet

Then you can ask Wolfgang to do some tests to see how the site performs from Europe. You could also run some site performance analysis tools like YSlow to get some suggestions for improvements.

Staging site performance

You might look into running some simple benchmarks with ab or httperf. Might be interesting to compare against the current Plone-based site.

Misc Concerns

In trying to get some test data from the current site using wget, I've seen a number of cases where a wget request failed, but then works when I try in a browser. This makes me worried that the wget-based snapshot may not be as complete as thought. Not sure if the issue is wget config options or Plone getting overwhelmed with requests and failing to respond.

Site Search

The site search contains several moving parts. The search is built on Apache Solr, which is in turn built on top of Apache Lucene.

How to configure Solr

The default SOLR installation works fine, with the exception of the file example/solr/conf/schema.xml which must be replaced with the version in this subversion repository at etc/solr.The changes in this file enable search query highlighting and snippets.

Solr can be started up as follows (SOLR_HOME is assumed to be the location where the solr tarball has been expanded):

cd $SOLR_HOME/example; java -jar start.jar

How to ensure that Solr is started up at boot time (on merlot2 and krait)

On both machines there is an /etc/rc.d/rc.local script (with symlink at /etc/rc.d/rclocal) which starts Solr as above. TODO: reboot (at least merlot2) and make sure this works.

How to configure the Apache web server to work with Solr

Using a2enmod, we added support for the "proxy" and "proxy_http" modules to the Apache web server. Then we added the following to /etc/apache2/vhosts.d/bioconductor-test.conf (merlot2) or bioconductor.conf (krait):

ProxyRequests Off
<Proxy *>
 Order deny,allow
 Allow from all
</Proxy>
ProxyPass /solr http://localhost:8983/solr
ProxyPreserveHost On
ProxyStatus On

This means that all requests starting with "/solr" will go to the solr server on port 8983. This allows us to make requests to the search server without violating the "same-origin" policy.

How the client-side portion of the search works

The page /search/index.html includes some javascript (in the file js/search.html) which in turn uses jQuery. The code parses the arguments in the URL and then makes an AJAX request to the SOLR server which returns a JSON string. The javascript code converts that to an object and then renders the search response page.

How to rebuild the search index (on your own machine, merlot2, or krait)

Note that you typically do not want to do this by hand as it is handled by cron jobs (see below).

On merlot2 (ssh to merlot2):

cd ~/biocadmin/bioc-test-web/bioconductor.org
rake search_index

What this command does:

  • Runs a Ruby class which determines which files need to be (re)indexed.
  • This uses a cache file containing the names of each file and their modification times as of the last time the script was run. If the cache file does not exist, all files are indexed. This class also handles new files and deletions.
  • The class actually does not do the indexing itself; it creates another script (index.sh) which does the actual indexing, which is accomplished by using curl to post files to the SOLR web app.

To re-index files on krait, ssh to merlot2 (not krait) and do this:

cd ~/biocadmin/bioc-test-web/bioconductor.org
rake index_production

Cron jobs for rebuilding the search index/why it is decoupled from site update

Doing "crontab l" on merlot2 shows how the index us updated on both merlot2 and krait. Here are the relevant lines:

30 */1 * * * cd $HOME/bioc-test-web; ./index_staging.sh > $HOME/bioc-test-web/index_staging.log 2>&1
30 */4 * * * cd $HOME/bioc-test-web; rake index_production > $HOME/bioc-test-web/production_index.log 2>&1

Notice that the search indexing process is decoupled from the site building process (which takes place every 10 minutes). Site indexing can be a time-consuming process (especially on krait) and the site rebuilding should be quick. So the search indexing takes place every hour on merlot2 and every four hours on krait (where there are many more files to be indexed which originate from the build system).

How to get search working on your own development machine

You could set up apache as described above but I think that is overkill. I use pound (http://www.apsis.ch/pound/) as a simple front end to both adsf (serving static content built by nanoc on one port) and solr (java web app running on another). You can use "rake search_index" to build the search index. You need to define the shell variables SOLR_HOME and JAVA_HOME. The rake target may require slight modification to handle the hostname of your local machine.

--todo: make sure people can't do anything bad as solr admin (change password?) See http://wiki.apache.org/solr/SolrSecurity

BiocViews Pages

The BiocViews pages are generated by a three-step process:

Step 1: rake get_json

This is run by a cron job on merlot2 every day at 2PM (presumably after the build system has finished and copied all its output to krait). Here is the cron job:

0 14 * * * cd $HOME/bioc-test-web; rake get_json > $HOME/bioc-test-web/get_json.log 2>&1

This Rake target runs some R code which calls code in the BiocViews package, extracting /packagesdata in JSON format and putting it in assets/packages/json. Then a ruby script is run which processes that JSON into a format usable by the javascript tree widget.

If you want to run this target on your own machine, you need R available with the biocViews (Bioconductor) and rjson (CRAN) packages installed.

Step 2: Build package detail pages

This is done by nanoc and handled by the DataSource subclass BiocViews (found in lib/data_sources/bioc_views.rb). This data source uses the JSON files generated in the previous step to build a single page for each page, one for release and one for devel. The pages are rendered by the partial layouts/_bioc_views_package_detail.html.

Step 3: The BiocViews Hierarchy page

At http://bioconductor.org/packages. This page uses javascript to build the tree, reading in data generated in step 1. The relevant Javascript file is assets/js/bioc_views.js. The automatically generated (by rake) file output/js/versions.js is also sourced.

Updating the site during a release

Take a look at the config.yaml file in the root of the bioconductor.org working copy. This should be the only place you need to make changes.

Standard Operating Procedures / SOPs / Troubleshooting

Problem: Web site does not seem to be updating

Symptom: Commits you made are not going through, and/or the dashboard (http://bioconductor.org/dashboard/) says that the site has not been updated in over 20 minutes. It likely means that an error was introduced in a recent commit. (make sure you haven't forgotten to svn add any files).

Solution: ssh to biocadmin@merlot2 (ask Dan or Carl if you don't have permission to do so). Change directories:

cd ~/bioc-test-web

Look at the 2015 Oct 29 10:22:19 AM then its contents are relevant. You can also look at the last few lines of ./cron.log.

Note that there is a cron job that copies BiocInstaller/inst/scripts/biocLite.R from Rpacks (trunk) to ~/bioc-test-web/bioconductor.org/assets every 3 minutes (then we rely on the normal rake tasks that run every 10 minutes to propagate this to the web site (krait)). So if there is a problem building the website this file will also fail to propagate.

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