Marker clustering using GMaps.js


In a previous post I showed that I am using a KML file as input into GMaps.js to put a bunch of points on a map for my travels site. This worked great, but I really want to do some marker clustering since too many points is pretty bad looking as can be seen below.

I’d much rather do some clustering and expand out to multiple points when you zoom in like here:

Turns out there are a few libraries for this already, I started out with one called Marker Clusterer but ended up with a improved version of this called Marker Clusterer Plus. And GMaps.js supports cluster libraries natively so should be easy, right?

Turns out the way Google maps loads KML files is done using a layer over the map and the points just are not accessible to any libraries, so the cluster libraries does nothing. Ok, so back to drawing points using my code.

I added a endpoint to the app that emits my points as JSON:

   "popup_html":"<p>\n<font size=\"+2\">Helsinki</font>\n<hr>\nBusiness trip in 2005<br /><br />\n\n</p>\n",
   "comment":"Business trip in 2005",

Now adding all the points and getting them clustered is pretty easy:

<script type="text/javascript">
    var map;
    function addPoints(data) {
      var markers_data = [];
      if (data.length > 0) {
        for (var i = 0; i < data.length; i++) {
            lat: data[i].lat,
            lng: data[i].lon,
            title: data[i].title,
            icon: data[i].icon,
            infoWindow: {
              content: data[i].popup_html
      infoWindow = new google.maps.InfoWindow({});
      map = new GMaps({
        div: '#main_map',
        zoom: 15,
        lat: 0,
        lng: 20,
        markerClusterer: function(map) {
          options = {
            gridSize: 40
          return new MarkerClusterer(map, [], options);
      points = $.getJSON("/points/json");

This is pretty simple, the GMaps() object takes a markerClusterer option that expects an instance of the clusterer. I fetch the JSON data and each row gets added as a point. Then it all just happens automagically. Marker Clusterer Plus can take a ton of options that lets you specify custom icons, grid sizes, tweak when to kick in clustering etc. Here I am just setting the gridSize to show how to do that. In this example I have custom icons used for the clustering, might blog about that later when I figured out how to get them to behave perfectly.

You can see this in action on my travel site. As an aside I’ve taken a bit of time to document how the Sinatra app works and put together a demo deployable to Heroku that should give people hints on how to get going if anyone wants to make a map of their own.

Ruby, Google Maps and KML


Since 1999 I kept record of most places I’ve traveled to. In the old days I used a map viewer from PARC Xerox to view these travels, I then used XPlanet which made a static image. Back in 2005 as Google Maps became usable from Javascript I made something to show my travels on an interactive map. It was using Gmaps EZ and PHP to draw points from a XML file.

Since then google made their v2 API defunct and something went bad with the old php code and so the time came to revisit all of this into the 4th iteration of a map tracking my travels.

Google Earth came out in 2005 as well – so just a bit late for me to use it’s data formats – but today it seems obvious that the data belong in a KML file. Hand building KML files though is not on, so I needed something to build the KML file in Ruby.

My new app maintains points in YAML files, have more or less an identical format to the old PHP system.

First to let people come up with categories of points you define a bunch of types of points first:

    :icon: http://your.site/markers/mini-ORANGE-BLANK.png
    :icon: http://your.site/markers/mini-BLUE-BLANK.png
    :icon: http://your.site/markers/mini-GREEN-BLANK.png

And then we have a series of points each referencing a type:

- :type: :visit
  :lon: -73.961334
  :title: New York
  :lat: 40.784506
  :country: United States
  :comment: Sample Data
  :href: http://en.wikipedia.org/wiki/New_York
  :linktext: Wikipedia
- :type: :transit
  :lon: -71.046524
  :title: Boston
  :lat: 42.363871
  :country: United States
  :comment: Sample Data
  :href: http://en.wikipedia.org/wiki/Boston
  :linkimg: https://pbs.twimg.com/profile_images/430836891198320640/_-25bnPr.jpeg

Here we have 2 points, both link to Wikipedia one using text and one using an image, one is a visit and one is a transit.

I use the ruby_kml Gem to convert this into KML:

First we set up the basic document and we set up the types using KML styles:

kml = KMLFile.new
document = KML::Document.new(:name => "Travlrmap Data")
@config[:types].each do |k, t|
  document.styles << KML::Style.new(
    :id         => "travlrmap-#{k}-style",
    :icon_style => KML::IconStyle.new(:icon => KML::Icon.new(:href => t[:icon]))

This sets up the types and give them names like travlrmap-visited-style.

We’ll now reference these in the KML file for each point:

folder = KML::Folder.new(:name => "Countries")
folders = {}
@points.sort_by{|p| p[:country]}.each do |point|
  unless folders[point[:country]]
    folder.features << folders[point[:country]] = KML::Folder.new(:name => point[:country])
  folders[point[:country]].features << KML::Placemark.new(
    :name        => point[:title],
    :description => point_comment(point),
    :geometry    => KML::Point.new(:coordinates => {:lat => point[:lat], :lng => point[:lon]}),
    :style_url   => "#travlrmap-#{point[:type]}-style"
document.features << folder
kml.objects << document

The points are put in folders by individual country. So in Google Earth I get a nice list of countries to enable/disable as I please etc.

I am not showing how I create the comment html here – it’s the point_comment method – it’s just boring code with a bunch of if’s around linkimg, linktext and href. KML documents does not support all of HTML but the basics are there so this is pretty easy.

So this is the basics of making a KML file from your own data, it’s fairly easy though the docs for ruby_kml isn’t that hot and specifically don’t tell you that you have to wrap all the points and styles and so forth in a document as I have done here – it seems a recent requirement of the KML spec though.

Next up we have to get this stuff onto a google map in a browser. As KML is the format Google Earth uses it’s safe to assume the Google Maps API support this stuff directly. Still, a bit of sugar around the Google APIs are nice because they can be a bit verbose. Previously I used GMapsEZ – which I ended up really hating as the author did all kinds of things like refuse to make it available for download instead hosting it on a unstable host. Now I’d say you must use gmaps.js to make it real easy.

For viewing a KML file, you basically just need this – more or less directly from their docs – there’s some ERB template stuff in here to set up the default view port etc:

<script type="text/javascript">
    var map;
      infoWindow = new google.maps.InfoWindow({});
      map = new GMaps({
        div: '#main_map',
        zoom: <%= @map_view[:zoom] %>,
        lat: <%= @map_view[:lat] %>,
        lng: <%= @map_view[:lon] %>,
        url: 'http://your.site/kml',
        suppressInfoWindows: true,
        preserveViewport: true,
        events: {
          click: function(point){

Make sure there’s a main_map div setup with your desired size and the map will show up there. Really easy.

You can see this working on my new travel site at travels.devco.net. The code is on Github as usual but it’s a bit early days for general use or release. The generated KML file can be fetched here.

Right now it supports a subset of older PHP code features – mainly drawing lines is missing. I hope to add a way to provide some kind of index to GPX files to show tracks as I have a few of those. Turning a GPX file into a KML file is pretty easy and the above JS code should show it without modification.

I’ll post a follow up here once the code is sharable, if you’re brave though and know ruby you can grab the travlrmap gem to install your own.

The problem with params.pp


My recent post about using Hiera data in modules has had a great level of discussion already, several thousand blog views, comments, tweets and private messages on IRC. Thanks for the support and encouragement – it’s clear this is a very important topic.

I want to expand on yesterdays post by giving some background information on the underlying motivations that caused me to write this feature and why having it as a forge module is highly undesirable but the only current option.

At the heart of this discussion is the params.pp pattern and general problems with it. To recap, the basic idea is to embed all your default data into a file params.pp typically in huge case statements and then reference this data as default. Some examples of this are the puppetlabs-ntp module, the Beginners Guide to Modules and the example I had in the previous post that I’ll reproduce below:

# ntp/manifests/init.pp
class ntp (
     # allow for overrides using resource syntax or data bindings
     $config = $ntp::params::config,
     $keys_file = $ntp::params::keys_file
   ) inherits ntp::params {
   # validate values supplied
   # optionally derive new data from supplied data
   # use data

# ntp/manifests/params.pp
class ntp::params {
   # set OS specific values
   case $::osfamily {
      'AIX': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp.keys'
      'Debian': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp/keys'
      'RedHat': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp/keys'
      default: {
         fail("The ${module_name} module is not supported on an ${::osfamily} based system.")

Now today as Puppet stands this is pretty much the best we can hope for. This achieves a lot of useful things:

  • The data that provides OS support is contained and separate
  • You can override it using resource style syntax or Puppet 3 data bindings
  • The data provided using any means are validated
  • New data can be derived by combining supplied or default data

You can now stick this module on the forge and users can use it, it supports many Operating Systems and pretty much works on any Puppet going back quite a way. These are all good things.

The list above also demonstrates the main purpose for having data in a module – different OS/environment support, allowing users to supply their own data, validation and to transmogrify the data. The params.pp pattern achieves all of this.

So what’s the problem then?

The problem is: the data is in the code. In the pre extlookup and Hiera days we put our site data in a case statements or inheritance trees or node data or any of number of different solutions. These all solved the basic problem – our site got configured and our boxes got built just like the params.pp pattern solves the basic problem. But we wanted more, we wanted our data separate from our code. Not only did it seem natural because almost every other known programming language supports and embrace this but as Puppet users we wanted a number of things:

  • Less logic, syntax, punctuation and “programming” and more just files that look a whole lot like configuration
  • Better layering than inheritance and other tools at our disposal allowed. We want to structure our configuration like we do our DCs and environments and other components – these form a natural series of layered hierarchies.
  • We do not want to change code when we want to use it, we want to configure that code to behave according to our site needs. In a CM world data is configuration.
  • If we’re in a environment that do not let us open source our work or contribute to open source repositories we do not want to be forced to fork and modify open source code just to use it in our environments. We want to configure the code. Compliance needs should not force us to solve every problem in house.
  • We want to plug into existing data sources like LDAP or be able to create self service portals for our users to supply this configuration data. But we do not want to change our manifests to achieve this.
  • We do not want to be experts at using source control systems. We use them, we love them and agree they are needed. But like everything less is more. Simple is better. A small simple workflow we can manage at 2am is better than a complex one.
  • We want systems we can reason about. A system that takes configuration in the form of data trumps one that needs programming to change its behaviour
  • Above all we want a system that’s designed with our use cases in mind. Our User Experience needs are different from programmers. Our data needs are different and hugely complex. Our CM system must both guide in its design and be compatible with our existing approaches. We do not want to have to write our own external node data sources simply because our language do not provide solid solutions to this common problem.

I created Hiera with these items in mind after years of talking to probably 1000+ users and iterating on extlookup in order to keep pace with the Puppet language gaining support for modern constructs like Hashes. True it’s not a perfect solution to all these points – transparency of data origin to name but one – but there are approaches to make small improvements to achieve these and it does solve a high % of the above problems.

Over time Hiera has gained a tremendous following – it’s now the de facto standard to solving the problem of site configuration data largely because it’s pragmatic, simple and designed to suit the task at hand. In recognition of this I donated the code to Puppet Labs and to their credit they integrated it as a default prerequisite and created the data binding systems. The elephant in the room is our modules though.

We want to share our modules with other users. To do this we need to support many operating systems. To do this we need to create a lot of data in the modules. We can’t use Hiera to do this in a portable fashion because the module system needs improvement. So we’re stuck in the proverbial dark ages by embedding our data in code and gaining none of the advantages Hiera brings to site data.

Now we have a few options open to us. We can just suck it up and keep writing params.pp files gaining none of the above advantages that Hiera brings. This is not great and the puppetlabs-ntp module example I cited shows why. We can come up with ever more elaborate ways to wrap and extend and override the data provided in a params.pp or even far out ideas like having the data binding system query the params.pp data directly. In other words we can pander to the status quo, we can assume we cannot improve the system instead we have to iterate on an inherently bad idea. The alternative is to improve Puppet.

Every time the question of params.pp comes up the answer seems to be how to improve how we embed data in the code. This is absolutely the wrong answer. The answer should be how do we improve Puppet so that we do not have to embed data in code. We know people want this, the popularity and wide adoption of Hiera has shown that they do. The core advantages of Hiera might not be well understood by all but the userbase do understand and treasure the gains they get from using it.

Our task is to support the community in the investment they made in Hiera. We should not be rewriting it in a non backwards compatible way throwing away past learnings simply because we do not want to understand how we got here. We should be iterating with small additions and rounding out this feature as one solid ever present data system that every user of Puppet can rely on being present on every Puppet system.

Hiera adoption has reached critical mass, it’s now the solution to the problem. This is a great and historical moment for the Puppet Community, to rewrite it or throw it away or propose orthogonal solutions to this problem space is to do a great disservice to the community and the Puppet product as a whole.

Towards this I created a Hiera backend that goes a way to resolve this in a way thats a natural progression of the design of Hiera. It improves the core features provided by Puppet in a way that will allow better patterns than the current params.pp one to be created that will in the long run greatly improve the module writing and sharing experience. This is what my previous blog post introduce, a way forward from the current params.pp situation.

Now by rights a solution to this problem belong in Puppet core. A Puppet Forge dependant module just to get this ability, especially one not maintained by Puppet Labs, especially one that monkey patches its way into the system is not desirable at all. This is why the code was a PR first. The only alternatives are to wait in the dark – numerous queries by many members of the community to the Puppet product owner has yielded only vague statements of intent or outcome. Or we can take it on our hands to improve the system.

So I hope the community will support me in using this module and work with me to come up with better patterns to replace the params.pp ones. Iterating on and improving the system as a whole rather than just suck up the status quo and not move forward.

Better Puppet Modules Using Hiera Data


When writing Puppet Modules there tend to be a ton of configuration data – generally things like different paths for different operating systems. Today the general pattern to manage this data is a class module::param with a bunch of logic in it.

Here’s a simplistic example below – for an example of the full horror of this pattern see the puppetlabs-ntp module.

# ntp/manifests/init.pp
class ntp (
     $config = $ntp::params::config,
     $keys_file = $ntp::params::keys_file
   ) inherits ntp::params {

# ntp/manifests/params.pp
class ntp::params {
   case $::osfamily {
      'AIX': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp.keys'
      'Debian': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp/keys'
      'RedHat': {
         $config = "/etc/ntp.conf"
         $keys_file = '/etc/ntp/keys'
      default: {
         fail("The ${module_name} module is not supported on an ${::osfamily} based system.")

This is the exact reason Hiera exists – to remove this kind of spaghetti code and move it into data, instinctively now whenever anyone see code like this they think they should refactor this and move the data into Hiera.

But there’s a problem. This works for your own modules in your own repos, you’d just use the Puppet 3 automatic parameter bindings and override the values in the ntp class – not ideal, but many people do it. If however you wanted to write a module for the Forge though there’s a hitch because the module author has no idea what kind of hierarchy exist where the module is used. If the site even used Hiera and today the module author can’t ship data with his module. So the only sensible thing to do is to embed a bunch of data in your code – the exact thing Hiera is supposed to avoid.

I proposed a solution to this problem that would allow module authors to embed data in their modules as well as control the Hierarchy that would be used when accessing this data. Unfortunately a year on we’re still nowhere and the community – and the forge – is suffering as a result.

The proposed solution would be a always-on Hiera backend that as a last resort would look for data inside the module. Critically the module author controls the hierarchy when it gets to the point of accessing data in the module. Consider the ntp::params class above, it is a code version of a Hiera Hierarchy keyed on the $::osfamily fact. But if we just allowed the module to supply data inside the module then the module author has to just hope that everyone has this tier in their hierarchy – not realistic. My proposal then adds a module specific Hierarchy and data that gets consulted after the site Hierarchy.

So lets look at how to rework this module around this proposed solution:

# ntp/manifests/init.pp
class ntp ($config, $keysfile)  {

Next you configure Hiera to consult a hierarchy on the $::osfamily fact, note the new data directory that goes inside the module:

# ntp/data/hiera.yaml
  - "%{::osfamily}"

And finally we create some data files, here’s just the one for RedHat:

# ntp/data/RedHat.yaml
ntp::config: /etc/ntp.conf
ntp::keys_file: /etc/ntp/keys

Users of the module could add a new OS without contributing back to the module or forking the module by simply providing similar data to the site specific hierarchy leaving the downloaded module 100% untouched!

This is a very simple view of what this pattern allows, time will tell what the community makes of it. There are many advantages to this over the ntp::params pattern:

This helps the contributor to a public module:

  • Adding a new OS is easy, just drop in a new YAML file. This can be done with confidence as it will not break existing code as it will only be read on machines of the new OS. No complex case statements or 100s of braces to get right
  • On a busy module when adding a new OS they do not have to worry about complex merge problems, working hard at rebasing or any git escoteria – they’re just adding a file.
  • Syntactically it’s very easy, it’s just a YAML file. No complex case statements etc.
  • The contributor does not have to worry about breaking other Operating Systems he could not test on like AIX here. The change is contained to machines for the new OS
  • In large environments this help with change control as it’s just data – no logic changes

This helps the maintainer of a module:

  • Module maintenance is easier when it comes to adding new Operating Systems as it’s simple single files
  • Easier contribution reviews
  • Fewer merge commits, less git magic needed, cleaner commit history
  • The code is a lot easier to read and maintain. Fewer tests and validations are needed.

This helps the user of a module:

  • Well written modules now properly support supplying all data from Hiera
  • He has a single place to look for the overridable data
  • When using a module that does not support his OS he can deploy it into his site and just provide data instead of forking it

Today I am releasing my proposed code as a standalone module. It provides all the advantages above including the fact that it’s always on without any additional configuration needed.

It works exactly as above by adding a data directory with a hiera.yaml inside it. The only configuration being considered in this hiera.yaml is the hierarchy.

This module is new and does some horrible things to get itself activated automatically without any configuration, I’ve only tested it on Puppet 3.2.x but I think it will work in 3.x as is. I’d love to get feedback on this from users.

If you want to write a forge module that uses this feature simply add a dependency on the ripienaar/module_data module, soon as someone install this dependency along with your module the backend gets activated. Similarly if you just want to use this feature in your own modules, just puppet module install ripienaar/module_data.

Note though that if you do your module will only work on Puppet 3 or newer.

It’s unfortunate that my Pull Request is now over a year old and did not get merged and no real progress is being made. I hope if enough users adopt this solution we can force progress rather than sit by and watch nothing happen. Please send me your feedback and use this widely.

CLI Report viewer for Puppet


When using Puppet you often run it in a single run mode on the CLI and then go afk. When you return you might notice it was slow for some or other reason but did not run it with –evaltrace and in debug mode so the information to help you answer this simply isn’t present – or scrolled off or got rotated away from your logs.

Typically you’d deploy something like foreman or report handlers on your masters which would receive and display reports. But while you’re on the shell it’s a big context switch to go and find the report there.

Puppet now saves reports in it’s state dir including with apply if you ran it with –write-catalog-summary and in recent versions these reports include the performance data that you’d only find from –evaltrace.

So to solve this problem I wrote a little tool to show reports on the CLI. It’s designed to run on the shell of the node in question and as root. If you do this it will automatically pick up the latest report and print it but it will also go through and check the sizes of files and show you stats. You can run it against saved reports on some other node but you’ll lose some utility. The main focus of the information presented is to let you see logs from the past run but also information that help you answer why it was slow to run.

It’s designed to work well with very recent versions of Puppet maybe even only 3.3.0 and newer, I’ve not tested it on older versions but will gladly accept patches.

Here are some snippets of a report of one of my nodes and some comments about the sections. A full sample report can be found here.

First it’s going to show you some metadata about the report, what node, when for etc:

sudo report_print.rb
Report for puppetmaster.example.com in environment production at Thu Oct 10 13:37:04 +0000 2013
             Report File: /var/lib/puppet/state/last_run_report.yaml
             Report Kind: apply
          Puppet Version: 3.3.1
           Report Format: 4
   Configuration Version: 1381412220
                    UUID: 99503fe8-38f2-4441-a530-d555ede9067b
               Log Lines: 350 (show with --log)

Some important information here, you can see it figured out where to find the report by parsing the Puppet config – agent section – what version of Puppet and what report format. You can also see the report has 350 lines of logs in it but it isn’t showing them by default.

Next up it shows you a bunch of metrics from the report:

Report Metrics:
                        Total: 320
                        Total: 320
                      Success: 320
                      Failure: 0
                        Total: 436
                  Out of sync: 317
                      Changed: 317
                    Restarted: 7
            Failed to restart: 0
                      Skipped: 0
                       Failed: 0
                    Scheduled: 0
                        Total: 573.671295
                      Package: 509.544123
                         Exec: 33.242635
      Puppetdb conn validator: 22.767754
             Config retrieval: 4.096973
                         File: 1.343388
                         User: 1.337979
                      Service: 1.180588
                  Ini setting: 0.127856
                       Anchor: 0.013984
            Datacat collector: 0.008954
                         Host: 0.003265
             Datacat fragment: 0.00277
                     Schedule: 0.000504
                        Group: 0.00039
                   Filebucket: 0.000132

These are numerically sorted and the useful stuff is in the last section – what types were to blame for the biggest slowness in your run. Here we can see we spent 509 seconds just doing packages.

Having seen how long each type of resource took it then shows you a little report of how many resources of each type was found:

Resources by resource type:
    288 File
     30 Datacat_fragment
     25 Anchor
     24 Ini_setting
     22 User
     18 Package
      9 Exec
      7 Service
      6 Schedule
      3 Datacat_collector
      1 Group
      1 Host
      1 Puppetdb_conn_validator
      1 Filebucket

From here you’ll see detail about resources and files, times, sizes etc. By default it’s going to show you 20 of each but you can increase that using the –count argument.

First we see the evaluation time by resource, this is how long the agent spent to complete a specific resource:

Slowest 20 resources by evaluation time:
    356.94 Package[activemq]
     41.71 Package[puppetdb]
     33.31 Package[apache2-prefork-dev]
     33.05 Exec[compile-passenger]
     23.41 Package[passenger]
     22.77 Puppetdb_conn_validator[puppetdb_conn]
     22.12 Package[libcurl4-openssl-dev]
     10.94 Package[httpd]
      4.78 Package[libapr1-dev]
      3.95 Package[puppetmaster]
      3.32 Package[ntp]
      2.75 Package[puppetdb-terminus]
      2.71 Package[mcollective-client]
      1.86 Package[ruby-stomp]
      1.72 Package[mcollective]
      0.58 Service[puppet]
      0.30 Service[puppetdb]
      0.18 User[jack]
      0.16 User[jill]
      0.16 User[ant]

You can see by far the longest here was the activemq package that took 356 seconds and contributed most to the 509 seconds that Package types took in total. A clear indication that maybe this machine is picking the wrong mirrors or that I should create my own nearby mirror.

File serving in Puppet is notoriously slow so when run as root on the node in question it will look for all File resources and print the sizes. Unfortunately it can’t know if a file contents came from source or content as that information isn’t in the report. Still this might give you some information on where to target optimization. In this case nothing really stands out:

20 largest managed files (only those with full path as resource name that are readable)
     6.50 KB /usr/local/share/mcollective/mcollective/util/actionpolicy.rb
     3.90 KB /etc/mcollective/facts.yaml
     3.83 KB /var/lib/puppet/concat/bin/concatfragments.sh
     2.78 KB /etc/sudoers
     1.69 KB /etc/apache2/conf.d/puppetmaster.conf
     1.49 KB /etc/puppet/fileserver.conf
     1.20 KB /etc/puppet/rack/config.ru
    944.00 B /etc/apache2/apache2.conf
    573.00 B /etc/ntp.conf
    412.00 B /usr/local/share/mcollective/mcollective/util/actionpolicy.ddl
    330.00 B /etc/apache2/mods-enabled/passenger.conf
    330.00 B /etc/apache2/mods-available/passenger.conf
    262.00 B /etc/default/puppet
    215.00 B /etc/apache2/mods-enabled/worker.conf
    215.00 B /etc/apache2/mods-available/worker.conf
    195.00 B /etc/apache2/ports.conf
    195.00 B /var/lib/puppet/concat/_etc_apache2_ports.conf/fragments.concat
    195.00 B /var/lib/puppet/concat/_etc_apache2_ports.conf/fragments.concat.out
    164.00 B /var/lib/puppet/concat/_etc_apache2_ports.conf/fragments/10_Apache ports header
    158.00 B /etc/puppet/hiera.yaml

And finally if I ran it with –log I’d get the individual log lines:

350 Log lines:
   Thu Oct 10 13:37:06 +0000 2013 /Stage[main]/Concat::Setup/File[/var/lib/puppet/concat]/ensure (notice): created
   Thu Oct 10 13:37:06 +0000 2013 /Stage[main]/Concat::Setup/File[/var/lib/puppet/concat/bin]/ensure (notice): created
   Thu Oct 10 13:37:06 +0000 2013 /Stage[main]/Concat::Setup/File[/var/lib/puppet/concat/bin/concatfragments.sh]/ensure (notice): defined content as '{md5}2fbba597a1513eb61229551d35d42b9f'

The code is on GitHub, I’d like to make it available as a Puppet Forge module but there really is no usable option to achieve this. The Puppet Face framework is the best available option but the UX is so poor that I would not like to expose anyone to this to use my code.

Newer Posts
Older Posts