iswunistuttgart / latex-boilerplate

Boilerplate for LaTeX documents empowering git, latexmkrc and GitLab's CI

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LaTeX GitLab Base Project

This project can be used to kick-start a LaTeX-based, git(lab)-powered project.

It is based on many many years of experience from writing LaTeX files and changing the compilation environment. That also implies it may not be the right thing for you if you're a starter, but it's worth knowing that this project exists ;)

By default, this project gives you the following file and directory structure for your project

  • algorithms/
  • animations/
  • appendix/
  • config/
  • content/
  • data/
  • glossaries/
  • figures/
  • images/
  • listings/
  • tables/
  • .latexmkrc-win
  • .latexmkrc-macos
  • .gitignore
  • .gitlab-ci.yml

Further down, the use of each file/directory will be explained.

What you should keep in mind is that I like to keep my main tex file as empty as possible. In most cases you will only find some \inputs or \includes inside the main .tex file. Every actual content is contained within subdirectories.

Want to read some advices on writing good LaTeX documents? Check out this advice for writing LaTeX documents

How To

If you want to create a LaTeX document and want to use this boilerplate, simply clone the project and get going:

git clone https://git.isw.uni-stuttgart.de/projekte/eigenentwicklungen/templates/latex-git-project.git "LaTeX Document"
cd "LaTeX Document"

Since your git project now is a clone off of this boilerplate, your origin will point there. That's not what we want, but we might want to keep the remote to incorporate upstream changes. As such, we will need to rename the origin remote to upstream and add our own origin remote:

git remote rename origin upstream
git remote add origin <your new origin URL>

That's it, now you can start writing your document, keep track of upstream changes, while also version control your actual document. How neat is that?

directories

algorithms

You are writing a code-heavy document and want to provide pseudo-code or code excerpts? It's always a good idea to keep content in separate files rather than all within your main document. This would be the folder for you to keep all algorithm or code snippets in that you may later include using package minted, or packages algorithm together with algpseudocode.

animations

After having found out, how to create animations using the animate package that is able to render both TikZ and psplots as animations, I added this directory. It is very similar to the figures/ directory as it is supposed to keep the raw animation files - not their data, this'll belong into data/. Using the animations/ directory, you can move your animations into standalone files that contain all logic to render the animation, allowing you to have reusable code.

appendix

As the name suggests, content that is not within your main document but seen as appended to it goes into this directory. Speaking LaTeX, there's actually no difference if you put your appendix into the main content/ directory (or content/appendix/), but I feel your directory is going to be looking cleaner if you physically have actual content separate from your appendix.

config

Use this directory to put any configuration of your document into. Be it additional packages you need to load, configuration of loaded packages like siunitx, layout adjustments or macro/environment definitions.

If you prefer, keep your different configuration files separate i.e., have one for loading packages, one for macro definitions, one for environment definitions, one for loading TikZ libraries. You get the idea.

content

As the name suggests, all your content tex-files should go in here. This is mostly useful when your document organically grows (like a thesis) and you only want to compile the currently edited text. Putting all your content into the main tex-file will be a pain in the long run. Just want to compile your abstract or introduction? Simply comment out the other contents' \input and compile your document. Simple as that.

How you further break down your content (I'd suggest creating files on a \subsection level) is up to you. Also, prefixing or suffixing your file with the section number might be your thing - but keep in mind that you might rearrange sections in your document and that would require you to also change the filename of the corresponding tex files.

data

It is preferable to have graphs (2D or 3D) available as tikz files as they will be rendered as vector graphics and will also pick up the environment's style (font family, font size, font weight, etc.). To keep markup from content separate (as LaTeX does), we should keep the markup of our figures separate from the data. Thus, the data used to generate a plot will be put into the data directory, while the tikz markup is located inside the figures directory (see below). It is recommended to keep the same naming convention inside the data and figures directory.

figures

You might ask yourself "why is there a figures/ and an images/ directory? Isn't everything a figure at its core?" and you are technically right. However, I prefer to think of figures as anything that is a data-based plot or generated from actual text (for my documents, this mostly implies TikZ/pgfplots). This directory contains all these tikzpictures. Within the figures/ directory, you can throw everything in at the top level or add additional sublevel directories to split by sections or content.

glossaries

Any good document requires some glossaries be it acronyms, notation, or a list of symbols used. The most powerful package is glossaries, yet there's nothing more important than a powerful directory hierarchy. I prefer to have my glossaries in a separate directory rather than within my content directory. Thus, you may also want to throw all your glossaries into this directory.

images

In contrast to figures, images are all documents that can be thought of as being pre-compiled. This includes anything from png, jpeg, pdf to eps or ps files. Whenever the object to be drawn does not consist of textual markup, it is considered an image and will be kept in the images/ directory.

listings

Some documents may also include source code listings. These floating environments should be treated much like any other floating environment: separate markup from content. Your markup of a listing goes into the corresponding tex-file inside the content/ directory while the actual content/data goes into the corresponding tex-file inside the listings/ directory.

tables

Another floating environment in LaTeX are tables. These can be quite long at times and take up space in your actual document. Think of it in the same way as you do for figures/images: you do not copy them into the document but actually include these figures via \includegraphics{figures/…}. Why not do this with tables, too? Also, this allows re-using tables in multiple documents as you only need to copy the table data in one single file and won't ever have to skim through your document finding the table.

videos

This folder will most likely only be necessary for presentations typeset with LaTeX, however, you may abuse your document PDF to include a video, too. This folder may be used to store videos (sidenote: think about enabling git LFS on your repository and on files in this directoyr — or for that matter for *.mp4 or other video formats).

Files

.latexmkrc-*

Setting up your LaTeX build environment correctly can be a challenge. If you are using any of the known IDEs like TeXmaker, TeXstudio, TeXworks, etc., there's many options to configure. These options can be very simple to set in case you are really just writing a plain document. However, as soon as you need to add some references/bibliography or want to add complex TikZ/pgfplots, compilation gets more complicated. Wouldn't it be cool to just have to run one command and wait for everything to compile as needed? C/C++, for example, has some thing called makefile that takes care of exactly that, so where's a similar thing for LaTeX? It's inside your .latexmkrc file in conjunction with latexmk. If you have a .latexmkrc in your project's root directory (and it's configured well), you can simply run latexmk inside the project directory from your command window, terminal, git bash, power shell, etc.

Depending on your OS, you want to copy the respective .latexmkrc-* file to .latexmkrc and start using it. The main difference is the previewer being set differently on Windows and on macOS: on Windows, sumatraPDF is being used by default while macOS has Previewer.app set as default.

.gitignore

It is very important to exclude the right files when working with a LaTeX document. Since it is quite a repetitive and cumbersome task (even with gitignore.io), we provide a basic .gitignore that's geared towards both Windows and UNIX users. If you are a power LaTeX user, you might want to take a look at the .gitignore file and see if it works for your or possibly excludes files that you don't want excluded.

The provided .gitignore file contains the following ignore definitions from gitignore.io:

  • archives
  • cvs
  • latex
  • linux
  • osx
  • sublimetext
  • svn
  • tags
  • tex
  • windows

.gitlab-ci.yml

A file-repository should generally only consist of the files needed to generate a certain file/document/binary etc. If transferred to LaTeX this means you wouldn't want your generated pdf file tracked - it's a dirty binary file, so it's a no go tracking it. But then again, everyone wanting to look at your document would need to clone the repository, run latexmk . and wait till the final document is generated. Annoying, right? Luckily there's ways to make this unnecessary by using a .gitlab-ci.yml file with GitLab's Continuous Integration (CI) enabled. If you have correctly configured your GitLab project, you can simply push changes of your files to the remote and it will automatically build the pdf for you. It'll even alert you in case it fails building the file. How neat is that?

You will need two things for this auto-magic to work: a .gitlab-ci.yml file (:checkmark: can be found in this project) and a correctly configure GitLab project. The latter really is quite simple - just head over to the GitLab help pages and follow the step(s).

The provided .gitlab-ci.yml is configured to use a docker image of texlive 2010 which ships the most recent version of LaTeX on an ubuntu system. Besides texlive-2019, perl, ghostscript, imagemagick, and python-pygments is installed. Using pgfplots may require having ghostscript available while wanting to add code listings using the highly recommended minted package requires python and python-pygments. When GitLab CI is enabled and the .gitlab-ci.yml is added to the repo, there is only one job being performed: compile_pdf. This job downloads previously mentioned docker image and starts it. Then, the most recent version of the repository is checked out (in the branch you pushed to) and latexmk is executed. Since this picks up the filename to compile from the .latexmkrc file, you ought to make sure that your tex file is named accordingly. The tex file used by latexmk ought to be called source.tex - but you can also change the corresponding line in either .latexmkrc-macos or .latexmkrc-win. After successful compilation (you should get an email if your compilation failed showing the error) the compiled files (artifacts, as GitLab calls them) are taken from the root directory matching the file extension *.pdf. The artifacts name is composed of GitLab's project slug and the commit SHA.

HowTos

Roadmap

[ ] Add support for TikZ/PGF. Not sure how exactly, but maybe at least a simple externalization script of some sort

Further reading

If you need more information, especially on the provided dot-files, I suggest first looking into the files and then looking at the following list of links (in no particular order):

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Boilerplate for LaTeX documents empowering git, latexmkrc and GitLab's CI