waltsims/tum_thesis_template_cse

This repository is a LaTeX thesis template, not an application. Its architecture is centered on one build entrypoint that assembles reusable front matter, thesis chapters, bibliography, and assets into a single PDF.

1. Build entrypoint

- main.tex is the root document and the top-level assembly point.

- It likely controls document class, package loading, and the order in which all other files are included.

- The resulting artifact is main.pdf in the repository root.

2. Document composition boundary

- The repo cleanly separates template infrastructure from user-authored content.

- components/ contains reusable thesis scaffolding.

- chapters/ contains the actual thesis content sections.

- This split is the main architectural boundary an engineer should diagram.

3. Reusable front matter and thesis metadata

- Files in components/ represent standard thesis sections such as:

- cover.tex

- titlepage.tex

- abstract.tex

- acknowledgements.tex

- preface.tex

- disclaimer.tex

- quote.tex

- outline.tex

- glossary.tex

- info.tex

- These are modular inserts into the thesis front matter and supporting pages.

4. Global formatting and macros

- components/settings.tex is the central configuration layer for layout, packages, and document behavior.

- components/commands.tex likely defines custom macros and shortcuts used throughout the template.

- components/text.tex appears to hold shared textual defaults or boilerplate.

- These files function as the template’s “configuration and shared logic” layer.

5. Content chapters

- chapters/Introduction.tex and chapters/Appendix.tex are the main sample/user chapters in the tree.

- In a real thesis, this folder is where the main content is extended.

- The chapter files depend on the global settings and macros defined in components/.

6. Bibliography subsystem

- bibliography/literature.bib is the bibliographic data source.

- The bibliography is a separate input domain from the main chapter text and is likely processed by BibTeX/Biber depending on main.tex configuration.

- This is the citation data boundary for the document.

7. Asset and branding layer

- images/ stores figures and other graphical content referenced by chapters or front matter.

- styles/cse_logo.pdf and styles/tum_logo.pdf are institutional branding assets used in title/cover material.

- These are static inputs consumed by the LaTeX build, not generated outputs.

8. Tooling and compilation flow

- The README specifies compilation via latexmk with -shell-escape.

- minted is supported, which implies code listings may invoke Pygments externally during build.

- That makes the build dependent on both a TeX distribution and Python-side syntax highlighting support.

9. Multiple LaTeX engine support

- The repository is validated for pdflatex, xelatex, and lualatex.

- This means the template is designed to be portable across common TeX engines.

- The choice of engine affects language/font handling, especially for multilingual theses.

10. Continuous integration

- .github/workflows/ contains separate test workflows for pdflatex, xelatex, and lualatex.

- CI’s role is to verify that the template compiles under each engine.

- This is an important quality gate because template changes can break document assembly even when individual files look valid.

11. Governance and contribution layer

- CONTRIBUTING.md and GitHub issue templates support community contribution rather than runtime behavior.

- They indicate the project is maintained as a reusable public template.

- This matters architecturally because the repository is designed for extension by downstream thesis authors.

12. Overall data flow

- The document build flows from main.tex → shared configuration in components/ → content in chapters/ → assets in images/, styles/, and bibliography/ → compiled PDF.

- The output is a single static artifact, so the repository’s architecture is fundamentally a composition pipeline rather than a service or application runtime.