Text to SVG Path Converter

An SVG path is a series of commands (M for move, L for line, C for curve, Z for close) that define a vector shape. Our tool converts rasterized text into clean path data that can be scaled infinitely without losing quality — perfect for logos, CNC engraving, laser cutting, vinyl plotting, and web graphics.

We render your text on a high-resolution canvas, then use edge detection and contour tracing algorithms to find the exact boundaries of each letter. These boundary points are compiled into SVG path commands. The result is a true vector outline of your text that can be used anywhere SVG is supported.

Letter outlines (path data) are essential for: laser engraving (machines need path data, not fonts), vinyl cutting, CNC routing, embroidery digitizing, 3D extrusion in Blender/Maya, custom logo design where you need to modify letter shapes, and web animations using stroke-dasharray effects.

Bold, clean fonts like Verdana Bold, Impact, Arial Bold, and Helvetica Bold produce the cleanest outlines. Thin or highly decorative fonts may result in fragmented paths due to fine details. We recommend using font sizes above 120px for optimal edge detection. Serif fonts work well too — the serifs add character to the outlines.

Yes! The SVG path data generated by this tool is yours to use freely. There are no restrictions on commercial usage. However, please ensure you have the proper license for any custom fonts you use — font licensing is separate from the path conversion process.

Fill mode creates a solid shape — the entire letter area is filled with color. Outline mode uses only the stroke (border) of the letters, leaving the interior transparent. Both combines fill and stroke for a bold outlined look. Choose based on your project needs: engraving typically uses outline mode, while logo design often uses fill mode.

The path captures every contour detail of your text. Complex letters with curves (like 'S', 'B', 'G') naturally require more points than simple letters (like 'I', 'L'). You can reduce path complexity by using a slightly smaller font size or choosing a simpler font. The path data is optimized with our simplification algorithm to remove redundant collinear points while preserving shape accuracy.