TEX / LaTeX Format Guide
Available Conversions
Convert LaTeX to AsciiDoc format for technical documentation
Convert LaTeX to AsciiDoc markup language
Convert LaTeX to Kindle AZW3 e-book format
Encode LaTeX files to Base64 for safe transmission
Convert LaTeX to BBCode for forum posts
Extract LaTeX data to CSV spreadsheet format
Convert LaTeX to DocBook XML for technical documentation
Convert LaTeX to Microsoft Word format
Convert LaTeX to EPUB e-book format
Convert LaTeX to modern EPUB 3.0 with MathML support
Convert LaTeX to FictionBook 2.0 e-book format
Encode LaTeX to hexadecimal for debugging
Convert LaTeX to HTML for web publishing
Extract LaTeX metadata to INI configuration format
Convert LaTeX to JSON for APIs and data processing
Extract LaTeX content to log file format
Convert LaTeX to Markdown for documentation
Convert LaTeX to Kindle MOBI format
Convert LaTeX to OpenDocument Text format
Convert LaTeX to Emacs Org-mode format
Compile LaTeX to PDF for printing and sharing
Convert LaTeX to PowerPoint presentations
Extract LaTeX metadata to Java Properties format
Convert LaTeX to reStructuredText for Python docs
Convert LaTeX to Rich Text Format
Extract LaTeX data to SQL database format
Convert LaTeX to SVG vector graphics
Convert LaTeX to StarOffice Writer format
Convert LaTeX to Textile markup for Redmine
Extract LaTeX metadata to TOML configuration
Extract LaTeX data to tab-separated values
Extract plain text from LaTeX documents
Convert LaTeX to MediaWiki markup for Wikipedia
Extract LaTeX data to Excel spreadsheet
Convert LaTeX to structured XML format
Extract LaTeX metadata to YAML format
About TEX / LaTeX Format
LaTeX is a high-quality typesetting system designed for the production of technical and scientific documentation. It's the de facto standard for academic papers, especially in mathematics, physics, computer science, and engineering. LaTeX excels at handling complex mathematical equations, automatic numbering, cross-references, bibliographies, and producing publication-quality output.
History of TeX and LaTeX
TeX was created by Donald Knuth at Stanford University in 1978, primarily to typeset his multi-volume work "The Art of Computer Programming." Knuth was dissatisfied with the quality of typesetting available for mathematical content, so he designed TeX to produce professional-quality output. In 1984, Leslie Lamport developed LaTeX as a set of macros on top of TeX, making it more accessible to non-programmers. LaTeX2e, released in 1994, is still the current standard version. The system separates content from presentation, allowing authors to focus on writing while LaTeX handles consistent formatting.
Key Features and Capabilities
LaTeX provides unmatched support for mathematical typesetting with the AMS-LaTeX packages, allowing authors to write complex equations using intuitive notation. The system automatically numbers sections, figures, tables, and equations, maintaining correct references throughout the document. BibTeX and BibLaTeX handle bibliography management, automatically formatting citations and reference lists according to thousands of available styles. LaTeX's package ecosystem offers extensions for nearly any need: TikZ for vector graphics, listings for code highlighting, hyperref for PDF links, and thousands more. Documents are written in plain text, making them ideal for version control with Git.
Common Applications
LaTeX is the standard format for academic journals in mathematics, physics, and computer science. Major publishers like Elsevier, Springer, and IEEE provide LaTeX templates for submissions. Universities worldwide require PhD dissertations in LaTeX format. The system is used for writing technical books, conference proceedings, lecture notes, and course materials. Scientists use LaTeX for research papers, grant proposals, and technical reports. Beamer, a LaTeX class, is popular for creating academic presentations. Many open-source projects use LaTeX for documentation. The format's precision and consistency make it essential for any document requiring mathematical notation or complex formatting.
Advantages and Disadvantages
Advantages
- Professional Typesetting: Publication-quality output rivaling professional typographers
- Mathematical Excellence: Best-in-class equation typesetting with AMS-LaTeX
- Automatic Numbering: Sections, figures, tables, and equations numbered automatically
- Cross-References: Labels and references update automatically
- Bibliography Management: BibTeX/BibLaTeX for citation and reference formatting
- Version Control: Plain text format works perfectly with Git
- Consistent Formatting: Styles are defined once and applied throughout
- Extensibility: Thousands of packages for any functionality
- Free and Open: Completely free with active community support
- Long-term Stability: Documents from 30 years ago still compile
Disadvantages
- Steep Learning Curve: Requires time to learn syntax and concepts
- Not WYSIWYG: Cannot see final output while editing
- Compilation Required: Must compile to see formatted output
- Cryptic Errors: Error messages can be difficult to understand
- Package Conflicts: Some packages don't work well together
- Limited Collaboration: Non-LaTeX users cannot easily edit
- Table Complexity: Creating complex tables can be challenging
- Image Positioning: Floats don't always appear where expected