Convert LaTeX to Textile

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LaTeX vs Textile Format Comparison

Aspect LaTeX (Source Format) Textile (Target Format)
Format Overview
LaTeX
Professional Typesetting System

LaTeX is a document preparation system created by Leslie Lamport in 1984, built on top of Donald Knuth's TeX engine. It is the standard for academic papers, theses, and scientific publications, offering unparalleled mathematical typesetting and precise layout control.

Academic Standard Math Typesetting
Textile
Lightweight Web Markup Language

Textile is a lightweight markup language originally developed by Dean Allen in 2002. It converts simple text syntax into valid HTML, combining readability with powerful formatting capabilities. Textile is used in content management systems like Redmine and Textpattern for web publishing and wiki content.

Web Publishing Wiki Markup
Technical Specifications
Structure: Macro-based markup with commands
Encoding: ASCII/UTF-8 with escape sequences
Format: Plain text with backslash commands
Compilation: Requires TeX engine (pdflatex, xelatex, lualatex)
Extensions: .tex, .latex
Structure: Inline and block-level markup syntax
Encoding: UTF-8 plain text
Format: Human-readable markup that generates HTML
Processing: RedCloth (Ruby), Textile parsers in PHP, Python
Extensions: .textile
Syntax Examples

LaTeX uses backslash commands:

\documentclass{article}
\begin{document}
\section{Introduction}
The equation $E = mc^2$ describes
mass-energy equivalence.
\begin{itemize}
  \item First point
  \item Second point
\end{itemize}
\end{document}

Textile uses concise punctuation-based markup:

h1. Introduction

The equation E = mc^2^ describes
mass-energy equivalence.

* First point
* Second point
Content Support
  • Advanced mathematical typesetting
  • Automatic numbering and cross-references
  • Bibliography management (BibTeX/BibLaTeX)
  • Custom macros and environments
  • Precise page layout control
  • Multi-column text
  • Complex tables with longtable
  • Index generation
  • Headings (h1. through h6.)
  • Bold, italic, underline, strikethrough
  • Ordered and unordered lists
  • Tables with alignment control
  • Hyperlinks and image embedding
  • Block quotes and code blocks
  • CSS class and ID attributes
  • Footnotes and inline HTML
Advantages
  • Superior mathematical typesetting
  • Publication-quality output
  • Vast ecosystem of packages
  • Automated numbering and referencing
  • Industry standard for academia
  • Consistent, reproducible output
  • Clean, readable source text
  • Generates valid XHTML output
  • Supports CSS styling attributes
  • Built-in table formatting
  • Quick to learn and write
  • Good for web content creation
  • Inline HTML support for complex needs
Disadvantages
  • Steep learning curve
  • Complex error messages
  • Requires compilation step
  • Not easily editable by non-technical users
  • Large distribution size
  • No mathematical notation support
  • Limited ecosystem compared to Markdown
  • Declining popularity in modern tools
  • No native multi-format output
  • Fewer editor plugins available
Common Uses
  • Academic papers and journal articles
  • Dissertations and theses
  • Scientific publications
  • Mathematics textbooks
  • Conference proceedings
  • Redmine wiki and issue tracking
  • Textpattern CMS content
  • Blog posts and web articles
  • Project documentation in wikis
  • Quick web content authoring
Best For
  • Complex mathematical documents
  • Academic and scientific publishing
  • Formal typesetting needs
  • Research papers with citations
  • Wiki-based documentation systems
  • Redmine project management content
  • Quick HTML content generation
  • Web publishing with CSS styling
Version History
Introduced: 1984 (Leslie Lamport)
Based On: TeX by Donald Knuth (1978)
Current Version: LaTeX2e (since 1994)
Status: Actively maintained by LaTeX Project
Introduced: 2002 (Dean Allen)
RedCloth: Ruby implementation (2004)
Used By: Redmine, Textpattern CMS
Status: Stable, maintained for existing platforms
Software Support
Editors: TeXmaker, Overleaf, TeXstudio, VS Code
Engines: pdfLaTeX, XeLaTeX, LuaLaTeX
Distributions: TeX Live, MiKTeX, MacTeX
Converters: Pandoc, LaTeX2HTML, tex4ht
Editors: Any text editor, Redmine built-in editor
Processors: RedCloth (Ruby), PHP Textile, Pandoc
Platforms: Redmine, Textpattern, various wikis
Output: XHTML

Why Convert LaTeX to Textile?

Converting LaTeX documents to Textile markup is useful when migrating academic or scientific content into wiki-based documentation systems or content management platforms that use Textile as their primary markup language. While LaTeX focuses on print-quality typesetting, Textile provides a quick and readable way to create HTML content for the web.

Textile is particularly popular in project management tools like Redmine, where it serves as the default markup language for wiki pages, issue descriptions, and project documentation. Converting LaTeX papers or technical documents to Textile allows teams to integrate research content directly into their project management and collaboration workflows.

One advantage of Textile over LaTeX for web content is its ability to embed CSS classes and IDs directly in the markup, giving authors fine-grained control over HTML output styling. Textile also supports inline HTML, providing an escape hatch for complex formatting that goes beyond what Textile syntax offers natively.

When converting from LaTeX, mathematical formulas will need to be simplified since Textile has no native math support. Complex LaTeX environments and custom macros are translated to their closest Textile equivalents, with structural elements like sections, lists, and tables converting cleanly into Textile's concise syntax.

Key Benefits of Converting LaTeX to Textile:

  • Wiki Integration: Textile is the default markup in Redmine and other wiki platforms
  • Web-Ready Output: Textile generates valid XHTML for immediate web publishing
  • CSS Styling: Embed CSS classes and IDs directly in markup
  • Readable Source: Textile syntax is clean and easy to understand
  • Quick Authoring: Faster to write than LaTeX for web content
  • Table Support: Built-in table formatting with alignment control
  • Inline HTML: Escape to raw HTML when needed for complex formatting

Practical Examples

Example 1: Academic Paper Section

Input LaTeX file (paper.tex):

\documentclass{article}
\title{Data Analysis Methods}
\author{Dr. Smith}
\begin{document}
\maketitle
\section{Introduction}
This paper examines three statistical methods
for analyzing large datasets.
\subsection{Background}
Previous research by \cite{jones2020} showed
significant improvements in accuracy.
\end{document}

Output Textile file (paper.textile):

h1. Data Analysis Methods

p. Dr. Smith

h2. Introduction

This paper examines three statistical methods
for analyzing large datasets.

h3. Background

Previous research by Jones (2020) showed
significant improvements in accuracy.

Example 2: Technical Documentation with Code

Input LaTeX file (guide.tex):

\section{Installation}
Install the package using pip:
\begin{verbatim}
pip install mypackage
\end{verbatim}
\textbf{Note:} Python 3.8+ is required.
\begin{itemize}
  \item Clone the repository
  \item Run the setup script
  \item Verify the installation
\end{itemize}

Output Textile file (guide.textile):

h2. Installation

Install the package using pip:

bc. pip install mypackage

*Note:* Python 3.8+ is required.

* Clone the repository
* Run the setup script
* Verify the installation

Example 3: Table Conversion

Input LaTeX file (report.tex):

\begin{table}[h]
\caption{Performance Results}
\label{tab:results}
\begin{tabular}{|l|r|r|}
\hline
Method & Accuracy & Speed \\
\hline
Method A & 95.2\% & 1.2s \\
Method B & 97.8\% & 3.4s \\
\hline
\end{tabular}
\end{table}
See Table~\ref{tab:results} for details.

Output Textile file (report.textile):

table(performance-results).
|_. Method |_. Accuracy |_. Speed |
| Method A | 95.2% | 1.2s |
| Method B | 97.8% | 3.4s |

See Table 1 for details.

Frequently Asked Questions (FAQ)

Q: What is Textile markup format?

A: Textile is a lightweight markup language that converts human-readable text into valid XHTML. It was created by Dean Allen in 2002 and uses simple punctuation-based syntax for formatting. Textile is commonly used in project management tools like Redmine and content management systems like Textpattern.

Q: Will my LaTeX math formulas be preserved?

A: Textile does not have native mathematical notation support. Simple formulas are converted to readable text representations, while complex mathematical expressions may need to be rendered as images or reformulated. For math-heavy documents, consider alternative formats like AsciiDoc or Markdown with MathJax support.

Q: Where is Textile markup commonly used?

A: Textile is the default markup language in Redmine (project management tool), Textpattern CMS, and some wiki platforms. It is also supported by Pandoc for document conversion. While less popular than Markdown in modern tools, it remains actively used in established platforms.

Q: How does Textile compare to Markdown?

A: Both are lightweight markup languages, but Textile offers more built-in formatting options including CSS class attributes, alignment control, and more detailed table syntax. Markdown has a larger ecosystem and broader adoption, while Textile is preferred in specific platforms like Redmine.

Q: Can I convert Textile back to LaTeX?

A: Yes, tools like Pandoc can convert Textile to LaTeX. However, mathematical formulas, custom LaTeX macros, and sophisticated formatting that were lost in the initial conversion cannot be automatically recovered. Always keep your original LaTeX source files.

Q: Does Textile support code blocks?

A: Yes, Textile supports code blocks using the bc. (block code) prefix for block-level code and @...@ for inline code. While it does not have syntax highlighting markup, the generated HTML can be styled with CSS or enhanced with JavaScript libraries like Prism.js.

Q: What happens to LaTeX cross-references?

A: LaTeX cross-references (\ref, \label) are converted to plain text references or Textile hyperlinks where possible. Automatic numbering from LaTeX is replaced with static numbers, so references remain readable but lose their dynamic updating capability.

Q: Can Textile handle complex document structures?

A: Textile supports headings, lists, tables, block quotes, footnotes, and basic formatting, which covers most common document structures. However, it lacks LaTeX-level features like automatic numbering, table of contents generation, and bibliography management. For complex documents, you may need to supplement Textile with inline HTML.