RLE to PAL Converter

Turn Utah RLE images into PAL images for free online

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Cross-Platform Access

Whether you are on Windows, macOS, Linux, or mobile — RLE to PAL conversion is available from any connected device.

Batch Support

Upload multiple RLE images and convert them all to PAL in one session — no need to repeat the process for each individual file.

Server-Side Speed

Heavy lifting happens in the cloud — your device resources are untouched while RLE images are processed into PAL format.

How to convert RLE to PAL

1

Select files from Computer, Google Drive, Dropbox, URL or by dragging it on the page.

2

Choose pal or any other format you need as a result (more than 200 formats supported)

3

Let the file convert and you can download your pal file right afterwards

About formats

RLE (Run-Length Encoded) in the context of the Utah RLE format refers to a raster image file format developed by Spencer W. Thomas at the University of Utah's Computer Science Department around 1983, as part of the Utah Raster Toolkit. The format stores images using a scanline-oriented run-length encoding scheme that compresses sequences of identical pixel values into count-value pairs, achieving good compression ratios for images with large areas of solid color — typical of computer-generated graphics and rendered scenes common in computer science research at the time. Utah RLE supports 1 to 255 color channels per pixel, with 8 bits per channel, and includes a header specifying image dimensions, number of channels, background color, and an optional color map. The format accommodates alpha channel data as an additional channel, and empty scanlines (matching the background color) can be omitted entirely for further compression. The Utah Raster Toolkit provided a suite of Unix command-line tools for manipulating RLE images — operations like compositing, scaling, rotating, color manipulation, and format conversion — establishing a software paradigm later echoed by Netpbm and ImageMagick. One advantage is the format's foundational role in computer graphics: the Utah Raster Toolkit and its RLE format emerged from the same research environment that produced the Phong shading model, Gouraud shading, and the teapot — and much of the early computer graphics research output was stored in this format. The format is supported by ImageMagick, GIMP, and various legacy graphics tools.
Initial release: 1983
PAL is a 16-bit per pixel interleaved YUV image format that stores color information using a luminance-chrominance model rather than direct RGB values. Each pixel pair is packed into four bytes using the UYVY byte ordering — U (Cb), Y0, V (Cr), Y1 — where two adjacent pixels share a single set of chroma (color difference) samples while each retaining its own luminance (brightness) value. This 4:2:2 chroma subsampling halves the color resolution horizontally with negligible perceptual impact, since human vision is far more sensitive to brightness variations than color detail. The format traces its conceptual roots to analog broadcast television standards developed during the 1960s and 1970s, where separating luminance and chrominance enabled backward-compatible color transmission alongside existing monochrome signals. In digital imaging, 16-bit YUV serves as a common intermediate representation for video capture hardware, frame grabbers, and image processing pipelines that work in the YCbCr color space internally before converting to RGB for display. One advantage is bandwidth efficiency: at 16 bits per pixel, UYVY requires roughly two-thirds the data of uncompressed 24-bit RGB while preserving virtually identical perceived quality, making it well suited for high-throughput video capture and real-time image processing applications. The format's direct correspondence to how video hardware captures and outputs data provides another practical benefit — many capture cards and camera sensors natively produce UYVY data, so storing it in PAL form avoids an unnecessary color space conversion step that would add latency and introduce rounding artifacts.
Developer: ITU-T / Microsoft
Initial release: 1982

Frequently Asked Questions

Why convert RLE to PAL?

RLE raster images from the Utah toolkit are hard to open today. A PAL conversion unlocks them for modern viewers and editing software.

What programs can open PAL?

ImageMagick and specialized palette editors open PAL color map files. Some image viewers with raw format support also handle them.

Is the conversion from RLE to PAL lossless?

The conversion keeps your image data intact — PAL does not introduce compression artifacts, ensuring the output matches the original closely.

How long does RLE to PAL conversion take?

The process is fast — cloud-based processing handles RLE to PAL conversion in seconds for standard-sized images, even on slower connections.

Can I queue several RLE files for conversion?

Yes — upload multiple RLE files in one session and convert them all to PAL simultaneously. Batch processing saves time on repetitive tasks.

Can I convert old CG research imagery?

Yes — if your files are in Utah RLE format, upload them to Convertio and convert to PAL for modern viewing and analysis.