Please note you should completely disregard the colouring in AutoDev (if coloring is even at all visible).
Non-linearly stretching an image's RGB components causes its hue and saturation to be similarly stretched and squashed. This is often observable as "washing out" of colouring in the highlights.
Traditionally, image processing software for astrophotography has struggled with this, resorting to kludges like "special" stretching functions (e.g. ArcSinH) that somewhat minimize the problem, or even procedures that make desaturated highlights adopt the colours of neighbouring, non-desaturated pixels.
While other software continues to struggle with colour retention, StarTools Tracking feature allows the Color module to go back in time and completely reconstruct the RGB ratios as recorded, regardless of how the image was stretched.
This is one of the major reasons why running the Color module is preferably run as one of the last steps in your processing flow; it is able to completely negate the effect of any stretching - whether global or local - may have had on the hue and saturation of the image.
Because of this, AutoDev's performance is not stymied like some other stretching solutions (e.g. ArcSinH) by a need to preserve colouring. The two aspects - colour and luminance - of your image are neatly separated thanks to StarTools' signal evolution Tracking engine.
StarTools is display-device agnostic, but can be configured to display its GUI at a 4x higher resolution to accommodate high-DPI devices and 4K displays.
The Color module is very powerful - offering capabilities surpassing most other software - yet it is simple to use.
The Stereo 3D module can be used to synthesise depth information based on astronomical image feature characteristics.
The 'WebVR' button in the module exports your image as a standalone HTML file.
At this point, things to look out for are; Stacking artefacts close to the borders of the image.
You can convert everything you see to a format you find convenient. Give it a try!