Convert Fonts to Any Format

12+ font formats. Professional quality with full Unicode and glyph support.

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Supports all font formats โ€ข Multiple files โ€ข 10MB max per file
12+ Formats Supported
100% Quality
Unicode Full Support

Supported Font Formats

Convert between 12 different font formats - from desktop fonts to web fonts

Desktop Fonts

TTF

TrueType Font - universal desktop font format developed by Apple and Microsoft in the 1980s. Uses quadratic Bรฉzier curves for glyph outlines. Excellent screen rendering with hinting technology. Works on all platforms (Windows, Mac, Linux). Standard format for system fonts and design applications. File sizes typically larger than web formats but widely compatible. Perfect for desktop publishing, design software (Photoshop, Illustrator), and applications requiring maximum compatibility.

OTF

OpenType Font - modern font standard developed by Adobe and Microsoft, extending TrueType with PostScript curves and advanced typography features. Supports 65,536+ glyphs (vs TTF's 65,536 limit), ligatures, contextual alternates, swashes, and complex script shaping. Uses cubic Bรฉzier curves for smoother outlines. Industry standard for professional typography and multilingual support. Essential for advanced design work, professional printing, complex scripts (Arabic, Devanagari), and typography-heavy projects.

DFONT

Mac OS Font Suitcase - legacy Macintosh font format storing TrueType or PostScript fonts in Mac resource fork structure. Native to classic Mac OS (pre-OS X). Contains font families with multiple weights/styles in single file. Obsolete format replaced by standard TTF/OTF in modern macOS. Maintained for accessing vintage Mac font collections, classic Mac software compatibility, and archival purposes. Essential for retro Mac design work and historical typography preservation.

CFF

Compact Font Format - Adobe's highly efficient font outline format that revolutionized font compression by storing glyph data using PostScript-based charstrings in a remarkably compact structure. Developed in the mid-1990s as part of the OpenType specification, CFF provides superior compression compared to TrueType outlines, often achieving 30-40% smaller file sizes while maintaining identical visual quality. The format uses Type 2 charstrings which are more compact than the Type 1 charstrings used in older PostScript fonts. CFF is not typically used as a standalone font file format but rather as the outline data embedded within OpenType (OTF) fonts that have PostScript outlines. When you see an OTF font, it might contain either TrueType outlines or CFF outlines - CFF versions are generally smaller. Used extensively in professional typography, PDF documents, and high-quality font production. Essential for font designers working with PostScript-based outlines and situations requiring maximum compression without quality loss. Most modern OTF fonts from professional foundries use CFF for its superior efficiency.

CID

CID-Keyed Font - Character IDentifier font format developed by Adobe specifically to handle enormous character sets found in Asian languages (Chinese, Japanese, Korean) which can contain thousands or tens of thousands of characters. Traditional font formats struggled with the sheer volume of glyphs needed for comprehensive CJK typography. CID fonts use a character ID system that efficiently organizes and references these massive glyph collections without the memory and performance problems of earlier approaches. The format separates character encoding from glyph descriptions, allowing multiple encodings to reference the same glyph set. This was revolutionary for Asian language publishing in the 1990s and early 2000s. However, CID fonts are complex, require specialized PostScript RIP (Raster Image Processor) support, and are largely obsolete now - modern Unicode-based OpenType fonts handle large character sets more elegantly with better software support. Still encountered in legacy professional CJK typography workflows, vintage desktop publishing systems, and archived Asian language documents from the pre-Unicode era. Important for accessing and converting historical Asian language font collections and maintaining legacy publishing workflows.

SFD

Spline Font Database - the native editable font format of FontForge, the popular free and open-source font editor. Think of SFD as the 'source code' for a font - it contains not just the final glyph outlines, but also all the editing metadata, construction history, guidelines, hints, and work-in-progress information that font designers need during the creative process. Available in both ASCII and binary formats, SFD files are human-readable (in ASCII mode) and can be version-controlled with Git, making them perfect for collaborative font design projects. FontForge has been the tool of choice for thousands of font designers worldwide since the early 2000s, particularly in the open-source community. SFD files preserve every detail of the font design process - anchor points, control points, reference layers, construction guides, and even designer notes. When you're done designing, you compile/export the SFD to TTF or OTF for distribution. Perfect for font design workflows, open-source font projects (many Google Fonts started as SFD files), font modification and customization, and learning font design with free tools. Essential format in the open-source typography community.

UFO

Unified Font Object - modern, open-source font source format that's become the de facto standard for exchangeable font design files across different font editors. Developed collaboratively by font tool creators (including developers of RoboFont, FontLab, Glyphs), UFO uses an XML-based directory structure where each glyph is stored in a separate human-readable XML file, making it perfect for version control systems like Git. This is huge for collaborative font design - teams can work on different glyphs simultaneously and merge changes intelligently, something impossible with binary font formats. UFO files contain complete font design data including glyph outlines, metrics, kerning, OpenType features, guidelines, and metadata. The format's openness and interoperability mean you can start a font in FontForge, continue in Glyphs, and finish in RoboFont without losing any data. Widely adopted by professional type foundries, open-source font projects, and educational institutions teaching type design. Many commercial and free fonts are now developed in UFO format before being compiled to OTF/TTF. Perfect for professional font development, collaborative type design projects, version-controlled font sources, and maintaining font families across multiple tools. If you're serious about font design, you'll encounter UFO files constantly.

Web Fonts

WOFF

Web Open Font Format - compressed font format specifically designed for web use, providing 40% smaller files than raw TTF/OTF. Developed by Mozilla, Microsoft, and Opera (2009). Supports both TrueType and OpenType outline data. Universal browser support (IE 9+, all modern browsers covering 99% of users). Includes metadata and private data tables. Standard web font format balancing compression and compatibility. Essential for website typography, custom web fonts, and cross-browser font delivery.

WOFF2

Web Open Font Format 2.0 - next-generation web font format offering 30% better compression than WOFF through Brotli algorithm. Developed by Google (2014). Provides smallest file sizes for fastest web loading. Supported by all modern browsers (Chrome 36+, Firefox 39+, Safari 12+, Edge 14+) covering 95%+ of users. Best choice for modern web projects. Essential for performance-optimized websites, mobile-first designs, and bandwidth-conscious applications. Future standard for web typography.

EOT

Embedded OpenType - Microsoft's proprietary web font format created exclusively for Internet Explorer (IE 6-11). Compressed format with DRM capabilities and subsetting support. Only browser requiring EOT was Internet Explorer. Obsolete since IE discontinuation (2022) but encountered in legacy web projects. Historical format maintained for supporting vintage IE browsers and accessing archived web font collections from 2000s-era web development.

SVG

Scalable Vector Graphics Font - font format where glyphs are defined as SVG paths, allowing color, gradients, and effects impossible in standard fonts. Supports multicolor glyphs and complex visual effects. Limited browser support and officially deprecated for web use. Larger file sizes than standard fonts. Used for special effects, icon fonts with color, and artistic typography. Legacy web font format maintained for specific design effects and creative typography projects requiring SVG rendering capabilities.

Specialized Formats

PFB

PostScript Font Binary - Adobe Type 1 font format in binary encoding, standard for professional printing and PostScript printers (1985-present). Compact binary format containing glyph outlines as PostScript curves. Requires matching PFM (Windows) or AFM (Unix) metrics file. Industry standard in desktop publishing, professional printing, and prepress workflows. Essential for high-end printing, Adobe applications, and projects requiring PostScript compatibility. Being superseded by OpenType but still used in legacy printing systems.

PFA

PostScript Font ASCII - Adobe Type 1 font in ASCII text format (vs binary PFB). Contains same PostScript glyph data as PFB but in readable text encoding. Larger file size than PFB but can be edited with text editors. Used in Unix systems and environments requiring text-based font formats. Legacy format from early PostScript days. Maintained for cross-platform PostScript font compatibility, font development, and systems requiring ASCII-only formats. Converts to PFB for production use.

PFM

Printer Font Metrics - Windows companion file for Type 1 PostScript fonts (PFB), containing font measurements, kerning pairs, and character widths needed for proper text layout. Does not include glyph outlines (those are in PFB file). Required alongside PFB for Windows applications to display and print Type 1 fonts correctly. Legacy format from Windows PostScript font support. Essential for working with Type 1 fonts on Windows and professional printing workflows.

AFM

Adobe Font Metrics - text-based metrics file for Type 1 PostScript fonts, containing character widths, kerning pairs, ligatures, and font measurements. Unix/Mac equivalent of PFM format. Human-readable ASCII format. Required alongside PFB for proper font rendering in PostScript environments. Standard in professional typography and printing. Essential for PostScript workflows, font analysis, and applications requiring detailed font metrics. Used in prepress, typesetting, and professional publishing systems.

BIN

Binary Font File - generic designation for raw binary font outline data without a specific container format wrapper. This is an intermediate or development format used primarily in font creation pipelines, font editing tools, and conversion utilities rather than an end-user distributable format. BIN files contain the essential glyph outline information (the actual shapes of the characters) in binary form but lack the headers, metadata, metrics tables, and organizational structure that make a complete font file usable by operating systems and applications. Think of it as the 'ingredients' without the 'recipe' - you have the essential data but not in a form that computers can use directly. Different font tools use binary font files for different purposes: temporary storage during conversion, intermediate processing steps, or proprietary internal formats. Not standardized, so one tool's BIN file may be incompatible with another's. If you encounter a BIN file, it typically needs to be processed with specific font tools or converted to standard formats (TTF, OTF) before use. Relevant primarily to font developers, conversion specialists, and situations involving font tool development or format research.

SUIT

Font Suitcase - Macintosh resource fork font container format from classic Mac OS era (1984-2001). Stores multiple font formats (bitmap, TrueType, PostScript) in proprietary Mac structure. Used for system fonts and font management in pre-OS X Mac systems. Legacy format requiring Mac-specific tools to access. Maintained for vintage Mac typography, classic design projects, and accessing archived Mac font libraries from 1980s-1990s era.

PS

PostScript Font Program - Adobe font format where the entire font is expressed as a PostScript language program containing the font outlines, metrics, and rendering instructions in human-readable PostScript code. This is the PostScript Type 1 font in its most verbose, program-like form - essentially executable PostScript code that defines how to draw each character. Developed in the mid-1980s alongside PostScript itself, this format was fundamental to the desktop publishing revolution. PS files are relatively rare as end-user font files because they're inefficient (large and slow to process) compared to binary formats like PFB, but they're incredibly useful for font development, debugging font issues, understanding font internals, and educational purposes since you can actually read the code. Used primarily for downloading fonts to PostScript printers (the printer executes the PostScript program to learn the font), font development workflows, and historical/archival purposes. Legacy format from the golden age of desktop publishing (1985-2000). Fascinating for understanding how PostScript fonts work but generally converted to OTF for modern usage. Important historical artifact in professional typography and a window into the technical foundations of digital type.

PT3

PostScript Type 3 Font - Adobe's bitmap and procedural font format allowing arbitrary PostScript graphics operations within glyph definitions, enabling color fills, patterns, gradients, and complex effects impossible in Type 1 fonts. Introduced alongside PostScript in the 1980s, Type 3 was revolutionary for its flexibility - glyphs could be full PostScript programs drawing anything imaginable. However, this flexibility came with significant drawbacks: no hinting (poor screen rendering at small sizes), no font protection, inefficient file sizes, and minimal software support. Type 3 fonts were used for special effects, decorative typography, and situations requiring graphic elements within letterforms. Largely obsolete now - modern alternatives (color fonts, SVG fonts, variable fonts) provide better solutions for similar effects with superior software support. Encountered mainly in vintage PostScript documents from 1980s-1990s, historical desktop publishing archives, and specialized artistic typography projects. Important for accessing and converting legacy PostScript artwork and maintaining historical DTP documents. Convert to modern formats unless specific Type 3 features are required for historical preservation.

T11

Type 11 Font - specialized variant of PostScript CID-Keyed font format used for complex fonts with enormous character sets, particularly in professional Asian language (CJK - Chinese, Japanese, Korean) typography. Part of Adobe's suite of solutions for handling fonts with thousands of glyphs before Unicode provided standardized approaches. Type 11 fonts combine CID-Keyed architecture with Type 1 PostScript outlines, optimized for environments requiring massive character repertoires with efficient memory usage. This was critical in the 1990s when memory was expensive and Japanese fonts could contain 10,000+ characters. However, Type 11 is a legacy format with limited modern support - contemporary Unicode-based OpenType fonts handle large character sets far more elegantly with better international standardization and broader software compatibility. Primarily encountered in legacy professional publishing systems, archived CJK typography projects from the 1990s-early 2000s, and old PostScript RIP configurations. Important for accessing historical Asian language font collections and maintaining vintage multilingual publishing workflows. Modern projects should use Unicode OpenType fonts which provide superior international character support with universal software compatibility.

T42

Type 42 Font - hybrid PostScript font format that wraps TrueType outline data in a PostScript font wrapper, creating a bridge between the TrueType and PostScript worlds. Developed to solve a specific problem: PostScript printers and workflows needed to use TrueType fonts (which were becoming popular on Windows and Mac in the 1990s) but PostScript interpreters only understood PostScript-based Type 1 fonts. Type 42 fonts encapsulate TrueType glyph data within a PostScript font structure, allowing PostScript devices to process TrueType fonts. This was primarily a printer-internal format - when you printed a TrueType font to a PostScript printer, the print driver might convert it to Type 42 temporarily. Not typically used as an end-user distributable font format because it's more efficient to use the native TrueType (TTF) format directly in modern workflows. Relevant mainly to printing technology specialists, PostScript RIP developers, and situations involving legacy PostScript printing systems from the 1990s-2000s. Historical format representing the complex interplay between competing font technologies during the desktop publishing transition. Modern systems handle TrueType fonts natively without Type 42 conversion. Convert underlying TrueType data to standard TTF/OTF for contemporary use.

Professional Font Conversion Tool

Convert your fonts between desktop and web formats with professional quality. Our converter maintains all glyphs, Unicode characters, kerning pairs, and font metrics. Perfect for web developers, designers, and typography professionals.

Font Converter FAQ

What is a font converter and why would I need one?

A font converter transforms font files from one format to another while preserving the font's design, glyphs, and metadata. You need font conversion when: using fonts across different platforms (Mac/Windows/Web), preparing fonts for web use (TTF to WOFF/WOFF2), working with legacy systems (converting old font formats), optimizing fonts for web performance, or ensuring cross-browser compatibility.

Common conversion scenarios: TTF/OTF to WOFF2 for modern web use, WOFF to WOFF2 for better compression, desktop fonts to web fonts for website embedding, web fonts to desktop fonts for design work, legacy formats to modern formats for compatibility. Our converter handles all conversions professionally with full Unicode support.

Professional use cases: Web developers need web fonts (WOFF/WOFF2) for fast page loading. Designers need desktop fonts (TTF/OTF) for software compatibility. Print designers need PostScript fonts (PFB/PFA) for professional printing. Game developers need fonts in specific formats for their engines. All these needs are served by our professional font converter.

How does font conversion work?

Font conversion involves parsing the source font file to extract all glyph data, metrics, kerning pairs, and metadata, then re-encoding this information into the target format. Our converter uses professional tools (FontForge, woff2_compress) to ensure: All glyphs are preserved exactly, Unicode mappings stay intact, Kerning pairs remain correct, Font metrics are maintained, Hinting information is preserved when possible.

The conversion process: (1) Upload font file, (2) Parser reads font structure and extracts all data, (3) Converter transforms data to target format specifications, (4) Optimizer compresses and optimizes output, (5) Validator checks output quality, (6) Download converted font. Processing typically takes 5-15 seconds depending on font complexity and target format.

Quality assurance: We validate every conversion to ensure glyphs render correctly, character mappings are accurate, and metrics are preserved. For web fonts, we optimize file size without sacrificing quality. For desktop fonts, we maintain full compatibility with design software. All conversions maintain professional quality standards.

What font formats do you support?

We support 12+ font formats across all categories: Desktop Fonts - TTF (TrueType), OTF (OpenType), DFONT (Mac), SUIT (Font Suitcase). Web Fonts - WOFF (Web Open Font), WOFF2 (Web Open Font 2.0), EOT (Embedded OpenType), SVG (Scalable Vector Graphics). Specialized Fonts - PFB (PostScript Binary), PFM (Printer Font Metrics), AFM (Adobe Font Metrics), PFA (PostScript ASCII).

Format compatibility: TTF and OTF work on all platforms (Windows, Mac, Linux). WOFF has 95%+ browser support. WOFF2 is supported by all modern browsers. EOT is for legacy IE support. SVG fonts are less common but useful for special effects. PostScript formats (PFB/PFA) are for professional printing. Our converter handles bidirectional conversion between all formats.

Format recommendations: For web use - WOFF2 (best compression) or WOFF (wider compatibility). For desktop use - OTF (best features) or TTF (universal compatibility). For legacy systems - EOT (old IE) or PFB (PostScript). For special effects - SVG fonts. Choose based on your specific platform and browser support requirements.

Is font conversion lossless?

Font conversion quality depends on source and target formats: Lossless conversions - TTF โ†” OTF (both use similar structure), WOFF โ†” TTF/OTF (WOFF is compressed TTF/OTF), PFB โ†” PFA (same data, different encoding). Nearly lossless - TTF/OTF โ†’ WOFF2 (excellent compression, minimal data change). Some data loss - SVG fonts (limited feature support), Legacy format conversions (older formats have fewer features).

What's preserved: All glyph outlines (the actual shapes), Unicode character mappings, Basic font metrics (width, height, ascent, descent), Kerning pairs (letter spacing), Family and style information. What might change: Advanced OpenType features (in simpler formats), Hinting information (optimization for screen rendering), Metadata (some formats support less metadata).

Conversion recommendations: For maximum quality retention, convert between modern formats (TTF, OTF, WOFF, WOFF2). When converting to web fonts, quality loss is minimal - fonts will render identically in browsers. When converting from legacy formats, some advanced features may not transfer. Always test converted fonts before using in production projects.

How do I use converted fonts on my website?

To use converted fonts on websites, you need: (1) Convert your font to web formats (WOFF2 and WOFF for compatibility), (2) Upload fonts to your server, (3) Add @font-face CSS rule, (4) Apply font to elements. Example CSS: @font-face { font-family: 'MyFont'; src: url('myfont.woff2') format('woff2'), url('myfont.woff') format('woff'); font-weight: normal; font-style: normal; }

Best practices for web fonts: Use WOFF2 primarily (better compression, faster loading), Include WOFF fallback for older browsers, Subset fonts to include only needed characters (reduces file size), Use font-display: swap for better perceived performance, Preload critical fonts (), Host fonts on same domain or use CDN, Compress font files during server delivery.

Performance tips: Modern web fonts are small (20-50KB for Western fonts). WOFF2 provides 30% better compression than WOFF. Subset fonts can reduce size by 80%+ for single-language sites. Use system font fallbacks while custom fonts load. Consider variable fonts for multiple weights/styles. Test font loading on slow connections. Monitor Core Web Vitals impact.

Can I convert Google Fonts or other commercial fonts?

Legal considerations for font conversion: Open Source Fonts - Fonts from Google Fonts, Adobe Fonts (some), Font Squirrel (free fonts) can be converted freely if license allows. Check individual font licenses. Commercial Fonts - Fonts you purchased with conversion rights can be converted for your use. Check your license agreement. Redistribution may be prohibited. Free Fonts - 'Free for personal use' fonts may not allow conversion or commercial use. Always read license.

Google Fonts specifically: Google Fonts are open source (SIL Open Font License or Apache License). You CAN convert Google Fonts for your own use. You CAN use converted Google Fonts on websites. You CAN modify and convert them. You CANNOT sell converted Google Fonts. Download from fonts.google.com first, then convert. Give proper attribution as required by license.

Safe practices: Only convert fonts you have rights to use and convert. Keep licenses with converted fonts. Don't redistribute converted commercial fonts. For clients' projects, ensure they have proper licenses. When in doubt, use open-source fonts (Google Fonts, Font Squirrel free fonts). Consider purchasing web font licenses for commercial projects. Respect font creators' rights and licensing terms.

What's the difference between TTF and OTF fonts?

TTF (TrueType Font) vs OTF (OpenType Font): TTF was developed by Apple and Microsoft in the 1980s. Uses quadratic Bรฉzier curves for glyph outlines. Works on all platforms. Good for simple fonts and screen display. Widely supported in all software. File sizes typically larger than OTF. Better hinting for screen rendering at small sizes.

OTF is an extension of TTF developed by Adobe and Microsoft. Uses cubic Bรฉzier curves (PostScript curves). Supports more advanced typography features (ligatures, alternates, contextual substitutions). Better for complex scripts and professional typography. Supports more glyphs (65,000+ vs 65,000 limit). Better for print and professional design work. Modern standard for professional fonts.

When to use each: Use TTF for - Simple web fonts, Maximum compatibility, Legacy system support, Fonts optimized for screen display. Use OTF for - Professional design work, Fonts with advanced features, Print production, Complex scripts (Arabic, Devanagari), Typography-heavy projects. Modern systems support both equally well. For web use, format matters less (both convert to WOFF/WOFF2). Choose based on font features needed.

How do I ensure converted fonts work across all browsers?

Browser font format support: WOFF2 - Supported by Chrome 36+, Firefox 39+, Safari 12+, Edge 14+ (95% global support). WOFF - Supported by IE 9+, all modern browsers (99% global support). TTF/OTF - Supported by all browsers but larger files. EOT - Only IE 6-11 (legacy only). SVG - Deprecated, avoid for new projects. Strategy: Provide WOFF2 + WOFF for complete coverage.

Cross-browser CSS example: @font-face { font-family: 'MyFont'; src: url('myfont.woff2') format('woff2'), /* Modern browsers */ url('myfont.woff') format('woff'); /* Fallback */ font-weight: normal; font-style: normal; font-display: swap; /* Better loading experience */ } This covers 99.9% of browsers. Skip EOT unless supporting IE 8.

Testing recommendations: Test on Chrome, Firefox, Safari, Edge (covers 95%+ users). Check font rendering on Windows and Mac (different rendering engines). Test on mobile devices (iOS Safari, Chrome Android). Use tools like BrowserStack for comprehensive testing. Verify fallback fonts load properly. Check font-display behavior. Monitor loading performance. Ensure no FOUT (Flash of Unstyled Text) or FOIT (Flash of Invisible Text).

Can I convert variable fonts?

Variable fonts are OpenType fonts with variable axes (weight, width, slant, optical size). They contain multiple styles in a single file. Convert variable fonts: From TTF/OTF variable to WOFF2 variable - Fully supported, maintains all axes. Between variable formats - Yes, all variable features preserved. To static fonts - Possible but loses variable functionality (creates single weight/style). From static to variable - Not possible (requires original design sources).

Variable font benefits: Single file contains multiple weights/styles (dramatically smaller total file size), Smooth interpolation between weights, Custom weight values (not limited to predefined weights), Better web performance (one request vs multiple), Responsive typography possibilities, Smaller bandwidth usage. Example: Roboto variable font (84KB) vs Roboto regular + bold + italic + bold italic (150KB+).

Using variable fonts: Convert to WOFF2 for best compression and browser support. Use CSS: font-variation-settings: 'wght' 450; for custom weights. Test browser support (supported by all modern browsers since 2018). Provide non-variable fallback for older browsers. Consider variable fonts for: Large font families, Responsive designs, Performance-critical sites, Modern web projects. Google Fonts offers many variable fonts free.

What are web font best practices?

Format and optimization: Use WOFF2 as primary format (30-50% smaller than WOFF). Include WOFF fallback for older browsers. Subset fonts to remove unused glyphs (reduces size by 50-80% for Western text). Remove unused language character sets. Use font-display: swap for better perceived performance. Preload critical fonts: .

Loading strategy: Load fonts asynchronously to avoid blocking page render. Use system font stack for initial render. Implement font-display: swap or optional. Limit number of font families (1-2 maximum). Limit number of weights (only needed weights). Self-host fonts for better control and performance. Consider variable fonts to reduce number of files. Cache fonts aggressively (1 year+).

Performance metrics: Aim for <100KB total font weight. Critical fonts should load in <1 second. Monitor Cumulative Layout Shift (CLS) from font swapping. Use fallback fonts that match size metrics. Test on 3G connections. Optimize font loading order (critical fonts first). Consider using system fonts for body text, custom fonts for headings. Measure impact on Core Web Vitals. Good font strategy improves both performance and user experience.

How do I batch convert multiple fonts?

Our font converter supports batch conversion: Upload multiple font files at once, Select output format (applies to all files), Click convert, Download as ZIP archive containing all converted fonts. This saves time when: Converting entire font families, Preparing multiple fonts for web use, Batch processing client fonts, Converting legacy font collections, Setting up new design projects.

Batch conversion benefits: Process entire font families in one operation, Consistent output format across all fonts, Faster than individual conversions, Automatic ZIP packaging for easy download, Maintains original filenames, Perfect for professional workflows. Example: Upload a font family (Regular, Bold, Italic, Bold Italic), convert all to WOFF2 at once, download single ZIP with all converted files.

Batch workflow tips: Organize fonts before upload (name files clearly), Keep related fonts together (family members), Convert to same target format for consistency, Use batch conversion for web font preparation, Download ZIP and extract to project folder, Test all converted fonts together, Keep originals as backup. For very large batches (50+ fonts), consider converting in groups to ensure stability.

What happens to font licensing after conversion?

Font licensing and conversion: Original license ALWAYS applies to converted fonts. Converting format does NOT change licensing terms. If font license prohibits conversion, don't convert. If license prohibits web use, don't use on websites (even in web format). If license is personal-use-only, converted fonts remain personal-use-only. Always comply with original font license terms.

Common license types: SIL Open Font License (OFL) - Can convert, use, modify, redistribute (with attribution). Apache License - Similar to OFL, allows commercial use. Free for personal use - Typically allows conversion for personal projects only. Commercial license - Check terms; usually allows conversion for purchased use cases. Desktop license - May not include web use rights (need separate web license).

Safe practices: Read license before converting, Keep license files with converted fonts, Don't distribute converted commercial fonts without permission, Purchase appropriate licenses for commercial projects, Use open-source fonts (Google Fonts) when possible, Educate clients about font licensing, Respect font creators' intellectual property. When in doubt, contact font creator or use free/open fonts.

Can I convert fonts for mobile apps?

Font formats for mobile apps: iOS (iPhone/iPad) - Supports TTF, OTF (preferred). Include fonts in app bundle. Register in Info.plist. Android - Supports TTF, OTF. Place in assets/fonts folder. Load programmatically or via XML. Convert to TTF or OTF for maximum compatibility across platforms. Mobile apps don't use web fonts (WOFF/WOFF2).

Mobile font implementation: For iOS: Add font files to Xcode project, Add font names to Info.plist (UIAppFonts array), Use in code: UIFont(name: 'FontName', size: 16). For Android: Place fonts in assets/fonts/, Load in code: Typeface.createFromAsset(assets, 'fonts/fontname.ttf'), Use in XML with font family attribute. Both platforms: OTF provides more features, TTF has slightly better compatibility.

Mobile app font tips: Use OTF for better typography features, Subset fonts if possible (reduces app size), Test on multiple devices, Consider variable fonts for size savings (iOS 11+, Android 8+), Bundle only needed weights, Comply with font licenses (app distribution is redistribution), Test font rendering on different screen densities, Provide fallback fonts. Mobile font files add to app download size - optimize when possible.

What's the best font format for performance?

Font format performance comparison: WOFF2 - Best compression (30% smaller than WOFF, 50% smaller than TTF), Fast decompression, Supported by all modern browsers, Best choice for web. WOFF - Good compression (40% smaller than TTF), Universal browser support, Good fallback. TTF/OTF - No compression, Larger files, Slower loading, Use only for desktop. EOT - IE only, Legacy, Avoid.

Performance optimization strategies: Use WOFF2 exclusively for modern browsers (95%+ support), Subset fonts to remove unused characters (50-80% size reduction), Use variable fonts instead of multiple files (50-70% total size reduction), Implement font-display: swap for better perceived performance, Preload critical fonts to start loading immediately, Cache fonts aggressively (1 year), Use service workers to cache fonts locally.

Real-world examples: Google Fonts serves WOFF2 to modern browsers (optimal performance). Amazon subsets fonts heavily (only used glyphs). Apple uses variable fonts on recent sites (fewer HTTP requests). Medium preloads critical fonts (faster initial render). Best practice: Convert to WOFF2, subset for your language, measure impact, iterate. Typical optimized font: 15-30KB (vs 150-300KB unoptimized). Good font strategy significantly improves page load times and user experience.

How do I troubleshoot font conversion issues?

Common conversion problems and solutions: Font doesn't display after conversion - Check CSS @font-face syntax, verify file path, ensure CORS headers for cross-domain fonts, test in different browsers. Characters missing - Original font may not include those characters, try different source format, ensure Unicode support in both formats. File size too large - Use WOFF2 for better compression, subset font to remove unused glyphs, remove unnecessary font features.

Format-specific issues: WOFF2 not working - Check browser support (IE not supported), ensure proper format() in CSS, verify file isn't corrupted. EOT issues - EOT is IE-only, use conditional comments for IE, verify IE version support. SVG font problems - SVG fonts deprecated, convert to WOFF/WOFF2 instead, limited browser support. PostScript (PFB/PFA) issues - These are for print/desktop, not web, convert to OTF for desktop use.

Debugging checklist: Verify source font works before conversion, Check converted font with font viewer tool, Validate @font-face CSS syntax, Test in multiple browsers, Check browser developer tools for font loading errors, Verify correct MIME types on server (font/woff2, font/woff, font/ttf), Ensure CORS headers if loading from different domain, Try different conversion settings, Test with simpler font first, Check font file isn't corrupted. Most issues are CSS/server configuration, not conversion quality.