FTS to JP2 Converter

Get JP2 output from your FTS data in seconds

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Cloud-Powered

All FTS to JP2 processing runs on remote servers. Your device stays unburdened — no CPU drain, no storage consumed during conversion.

Format Bridge

Go from specialized FTS (astronomy and scientific research) to universally supported JP2 — making your data accessible to anyone without niche software.

Cross-Platform

The converter works on Windows, macOS, Linux, iOS, and Android. Convert FTS to JP2 from whichever device you have at hand.

How to convert FTS to JP2

1

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

2

Choose jp2 or any other format you need as a result (more than 200 formats supported)

3

Let the file convert and you can download your jp2 file right afterwards

About formats

FTS is a file extension for the Flexible Image Transport System (FITS), the standard data format used in astronomy since 1981 when it was defined by Don Wells, Eric Greisen, and R.H. Harten at the National Radio Astronomy Observatory, and subsequently endorsed by the International Astronomical Union in 1982. FITS was designed from the outset as a self-describing archival format: each file begins with one or more 2880-byte header blocks containing ASCII keyword-value pairs that describe the data's dimensions, coordinate system, observation parameters, and provenance, followed by data blocks in a variety of numeric types — 8/16/32/64-bit integers and 32/64-bit IEEE floating-point values. FITS supports multi-dimensional arrays (images, data cubes, hypercubes), binary tables for catalog data, and ASCII tables, with multiple Header/Data Units (HDUs) that can coexist in a single file. The format handles specialized astronomical data: spectral cubes, radio interferometry visibilities, multi-extension mosaic images from CCD arrays, and time-series photometry. One advantage is scientific rigor: FITS mandates that all metadata needed to interpret the data physically — coordinate transformations (WCS), photometric calibration, telescope and instrument parameters — travels with the file, eliminating the metadata-loss problem that plagues general-purpose image formats in scientific contexts. The format's longevity and institutional backing is another strength — virtually every observatory, space telescope (Hubble, James Webb, Chandra), and astronomical software package (DS9, IRAF, Astropy) uses FITS as its primary data format.
Developer: NASA / IAU
Initial release: 1981
JP2 (JPEG 2000 Part 1) is an image format based on the JPEG 2000 compression standard, developed by the Joint Photographic Experts Group and published as ISO/IEC 15444-1 in December 2000 as the successor to the original JPEG standard. Unlike JPEG's block-based discrete cosine transform, JPEG 2000 uses discrete wavelet transform (DWT) compression, which eliminates the characteristic 8x8 block artifacts visible in highly compressed JPEG images and instead produces a smooth, gradual quality degradation. The format supports both lossy and lossless compression within the same codestream, along with features absent from original JPEG: 16-bit and higher bit-depth images, arbitrary numbers of color channels, alpha transparency, region-of-interest coding (allocating more bits to important areas), and progressive quality or resolution refinement from a single compressed stream. One advantage is superior image quality at low bit rates — JPEG 2000 produces visibly cleaner images than JPEG at equivalent file sizes, particularly below 0.5 bits per pixel where JPEG exhibits severe blocking. The progressive decoding capability is another strength: a single JP2 file can be decoded at any resolution or quality level without encoding multiple versions, valuable for remote sensing and medical imaging where the same image must serve both thumbnail browsing and full-resolution analysis. JP2 is the mandated format for digital cinema (DCI), the preferred format in geospatial data (GeoJP2), and widely adopted in cultural heritage digitization.
Initial release: December 2000

Frequently Asked Questions

Why convert FTS to JP2?

Superior compression with optional lossless mode — converting FTS to JP2 gives your astronomical images broader reach and easier sharing across standard platforms.

What programs open JP2?

Any modern image viewer opens JP2 — Windows Photos, macOS Preview, GIMP, Photoshop, and web browsers all support it.

How long does the conversion take?

Most FTS to JP2 conversions finish within seconds. Larger or more complex images may take slightly longer depending on the data size.

What is the FTS format?

FTS is used in astronomy and scientific research. It stores telescope captures and observatory data — converting to JP2 makes this data universally accessible.

Can I batch convert FTS to JP2?

Yes — Convertio supports batch uploads. Add multiple FTS images and convert them all to JP2 at once to speed up your workflow.

Will my image lose quality?

Quality depends on the target format. JP2 wavelet compressed output preserves data within its format constraints — no unnecessary degradation occurs.