Convert Textile to TEX

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Textile vs TEX (LaTeX) Format Comparison

Aspect Textile (Source Format) TEX / LaTeX (Target Format)
Format Overview
Textile
Textile Markup Language

A lightweight markup language created by Dean Allen for web content authoring. Textile uses intuitive syntax to generate well-formed HTML and is commonly used in Redmine, Basecamp, and various CMS platforms. It excels at quickly formatting text for web display with minimal syntax overhead.

Lightweight Markup Web Publishing
TEX
LaTeX Document Preparation System

A powerful typesetting system created by Donald Knuth (TeX) and extended by Leslie Lamport (LaTeX). It is the gold standard for academic and scientific publishing, offering precise control over document layout, mathematical typesetting, cross-references, bibliographies, and professional-quality output. LaTeX is used for papers, theses, books, and technical reports worldwide.

Academic Standard Professional Typesetting
Technical Specifications
Structure: Plain text with inline formatting markers
Encoding: UTF-8
Format: Human-readable markup
Compression: None (plain text)
Extensions: .textile, .txt
Structure: Commands and environments
Encoding: UTF-8 (with inputenc package)
Format: TeX macro language
Compression: None (plain text)
Extensions: .tex, .latex
Syntax Examples

Textile uses intuitive markup:

h1. Research Paper Title

h2. Abstract

This paper presents *findings*
on _machine learning_ approaches.

h2. Methods

* Data collection
* Feature extraction
* Model training

|_. Model    |_. Accuracy |
| SVM        | 92.3%      |
| Neural Net | 96.1%      |

LaTeX uses commands and environments:

\documentclass{article}
\begin{document}

\title{Research Paper Title}
\maketitle

\begin{abstract}
This paper presents \textbf{findings}
on \textit{machine learning} approaches.
\end{abstract}

\section{Methods}
\begin{itemize}
  \item Data collection
  \item Feature extraction
  \item Model training
\end{itemize}

\end{document}
Content Support
  • Headings (h1-h6)
  • Bold, italic, underline, strikethrough
  • Ordered and unordered lists
  • Tables with headers
  • Links and images
  • Block quotes and code blocks
  • Footnotes
  • Sections, chapters, parts
  • Mathematical equations and formulas
  • Bibliography and citations
  • Cross-references and labels
  • Tables and figures with captions
  • Custom commands and macros
  • Table of contents, index generation
  • Professional page layout
Advantages
  • Simple and readable syntax
  • Easy to learn and write
  • Plain text, version-control friendly
  • No special software required
  • Default in Redmine
  • Generates clean HTML output
  • Superior typographic quality
  • Best-in-class math typesetting
  • Automated numbering and cross-references
  • BibTeX/BibLaTeX bibliography management
  • Thousands of packages available
  • Version-control friendly (plain text)
  • Consistent, professional output
Disadvantages
  • Less popular than Markdown
  • Limited tooling ecosystem
  • No academic publishing support
  • No math equation support
  • Web-only focus
  • Steep learning curve
  • Verbose syntax for simple tasks
  • Compilation step required
  • Error messages can be cryptic
  • Package conflicts possible
Common Uses
  • Redmine wiki and issue tracking
  • Web content authoring
  • Documentation in project management
  • Blog posts and CMS content
  • Technical documentation
  • Academic papers and journals
  • PhD theses and dissertations
  • Scientific publications
  • Mathematical documents
  • Technical books and manuals
  • Conference proceedings
Best For
  • Quick web content creation
  • Redmine documentation
  • Lightweight formatted text
  • Version-controlled content
  • Academic and scientific publishing
  • Mathematical content
  • Professional typesetting
  • Long-form documents
Version History
Introduced: 2002 (Dean Allen)
Current Version: Textile 2
Status: Stable, maintained
Evolution: Minor updates over time
Introduced: 1978 (TeX) / 1984 (LaTeX)
Current Version: LaTeX2e (TeX 3.x)
Status: Active, continuously maintained
Evolution: LaTeX3 in development
Software Support
Redmine: Native support
Editors: Any text editor
Converters: Pandoc, RedCloth
Other: Basecamp, various CMS platforms
Distributions: TeX Live, MiKTeX, MacTeX
Editors: TeXstudio, Overleaf, VS Code
Online: Overleaf, ShareLaTeX
Other: LyX (GUI), Pandoc

Why Convert Textile to TEX?

Converting Textile markup to LaTeX (TEX) format opens the door to professional-quality typesetting for academic publications, scientific papers, and technical documents. LaTeX is the standard document preparation system in academia and scientific publishing, and converting your Textile content to TEX format allows you to leverage its superior typographic capabilities, mathematical typesetting, and publication-quality output.

Textile's simple formatting translates naturally to LaTeX commands: headings become \section, \subsection commands; bold and italic text become \textbf and \textit; lists become itemize and enumerate environments; and tables become tabular environments. The converter handles this mapping automatically, producing compilable LaTeX source that you can immediately build into PDF with any TeX distribution.

LaTeX excels at producing consistently formatted documents with proper typography, including kerning, ligatures, hyphenation, and paragraph justification that word processors cannot match. For documents that will be printed or submitted to journals, LaTeX output is unmatched in quality. Many academic conferences and journals provide LaTeX templates, making TEX the required format for submissions.

Beyond basic text formatting, LaTeX offers powerful features that Textile cannot provide: mathematical equation typesetting with the amsmath package, automated bibliography management with BibTeX/BibLaTeX, cross-referencing with \label and \ref, automatic table of contents generation, and thousands of packages for specialized formatting needs.

Key Benefits of Converting Textile to TEX:

  • Professional Typesetting: Publication-quality document output
  • Academic Standard: Required format for many journals and conferences
  • Math Support: Add mathematical equations after conversion
  • Bibliography: Integrate BibTeX references seamlessly
  • Cross-References: Automatic section, figure, and table numbering
  • PDF Output: Compile to high-quality PDF with any TeX distribution
  • Overleaf Compatible: Edit and collaborate online on Overleaf

Practical Examples

Example 1: Academic Paper

Input Textile file (paper.textile):

h1. Machine Learning for Code Review

h2. Abstract

This paper examines the use of *machine learning*
techniques for _automated code review_.

h2. Introduction

Code review is a critical practice in software engineering.

h2. Results

|_. Method     |_. Precision |_. Recall |
| SVM          | 89.2%       | 87.5%    |
| Random Forest| 91.7%       | 88.3%    |
| Deep Learning| 95.1%       | 93.8%    |

Output TEX file (paper.tex):

\documentclass{article}
\usepackage[utf8]{inputenc}
\usepackage{booktabs}

\title{Machine Learning for Code Review}
\author{}
\date{}

\begin{document}
\maketitle

\begin{abstract}
This paper examines the use of \textbf{machine learning}
techniques for \textit{automated code review}.
\end{abstract}

\section{Introduction}
Code review is a critical practice in software engineering.

\section{Results}
\begin{tabular}{lll}
\toprule
Method & Precision & Recall \\
\midrule
SVM & 89.2\% & 87.5\% \\
Random Forest & 91.7\% & 88.3\% \\
Deep Learning & 95.1\% & 93.8\% \\
\bottomrule
\end{tabular}

\end{document}

Example 2: Technical Report

Input Textile file (report.textile):

h1. System Architecture Report

h2. Overview

The system uses a *microservices architecture*
deployed on _Kubernetes_.

h2. Components

# API Gateway
# Authentication Service
# Data Processing Pipeline
# Storage Layer

h2. Dependencies

* PostgreSQL 15
* Redis 7
* RabbitMQ 3.12

Output TEX file (report.tex):

\documentclass{article}
\usepackage[utf8]{inputenc}

\title{System Architecture Report}

\begin{document}
\maketitle

\section{Overview}
The system uses a \textbf{microservices architecture}
deployed on \textit{Kubernetes}.

\section{Components}
\begin{enumerate}
  \item API Gateway
  \item Authentication Service
  \item Data Processing Pipeline
  \item Storage Layer
\end{enumerate}

\section{Dependencies}
\begin{itemize}
  \item PostgreSQL 15
  \item Redis 7
  \item RabbitMQ 3.12
\end{itemize}

\end{document}

Example 3: Course Material

Input Textile file (course.textile):

h1. Introduction to Algorithms

h2. Course Objectives

* Understand fundamental algorithms
* Analyze time and space complexity
* Implement sorting and searching algorithms

h2. Grading

|_. Component    |_. Weight |
| Assignments    | 30%      |
| Midterm Exam   | 30%      |
| Final Project  | 40%      |

Output TEX file (course.tex):

LaTeX document ready for:
✓ Professional course syllabus layout
✓ Automatic section numbering
✓ Properly formatted grading table
✓ Easy to add math formulas later
✓ Compiles to PDF with pdflatex
✓ Upload to Overleaf for collaboration
✓ Publication-quality typography

Frequently Asked Questions (FAQ)

Q: What is LaTeX (TEX)?

A: LaTeX is a document preparation system built on TeX, created by Donald Knuth. LaTeX (by Leslie Lamport) adds higher-level commands that simplify document creation. It is the standard for academic and scientific publishing, offering unmatched typographic quality, mathematical equation support, and automated document structuring. TEX files are compiled into PDF or other output formats.

Q: How do I compile the converted TEX file?

A: You can compile TEX files using any TeX distribution: TeX Live (Linux/Mac), MiKTeX (Windows), or MacTeX (Mac). Run "pdflatex paper.tex" in the command line to generate a PDF. Alternatively, use online editors like Overleaf that compile automatically in the browser without local installation.

Q: How are Textile headings mapped to LaTeX?

A: Textile headings are mapped to LaTeX sectioning commands: h1 becomes \section{}, h2 becomes \subsection{}, h3 becomes \subsubsection{}, and deeper levels use \paragraph{} and \subparagraph{}. If the document uses the report or book class, h1 can map to \chapter{} instead. LaTeX automatically numbers these sections.

Q: Can I add math equations to the converted document?

A: Yes! One of the main reasons to convert to LaTeX is to gain access to its mathematical typesetting. After conversion, you can add inline math ($E = mc^2$), display equations (\begin{equation}...\end{equation}), and complex mathematical notation. The amsmath package provides additional environments for aligned equations, matrices, and more.

Q: Is the output compatible with Overleaf?

A: Yes, the converted TEX files are fully compatible with Overleaf, the popular online LaTeX editor. Upload the .tex file to Overleaf, and it will compile immediately. Overleaf provides real-time collaboration, version history, and thousands of templates for journals and conferences.

Q: Will Textile tables work in LaTeX?

A: Yes, Textile tables are converted to LaTeX tabular environments. Table headers become bold column headings, and data cells are properly formatted. The converter uses the booktabs package for professional-looking table rules (\toprule, \midrule, \bottomrule) that are standard in academic publications.

Q: Can I use the converted TEX for journal submissions?

A: The converted TEX provides a solid starting point. For journal submissions, you will typically need to adjust the document class to the journal's template (e.g., \documentclass{IEEEtran}), add bibliographic references with BibTeX, and include journal-specific metadata. The converted content saves significant time over starting from scratch.

Q: What about Textile code blocks in LaTeX?

A: Textile code blocks (bc. prefix) are converted to LaTeX verbatim environments or lstlisting environments (with the listings package). The listings package supports syntax highlighting for many programming languages, making the converted code blocks look professional in the compiled PDF output.