G-RGB recording of Compernicus showing subtle changes in color in and near the crater. The seeing was very good, but the transparancy was too poor to increase the saturation further.

Ir-RGB image of Jupiter in daylight. Jupiter was at 30 degrees altitude and the sun at 5 degrees altitude.

The seeing was pretty good in infrared, but RGB stayed behind on the details.

And an animation in infrared light:

An RGB image of Saturn (south up, showing the storm broken up in smaller pieces), and an animation in red light between 21:09 and 21:44UTC (south down, the storm again visible)

Animation in infrared light (>807nm)
North is up (usually I have south up, but I\'m too lazy to change it ;) )

16:23 - 18:20 UTC

Through rgb filters:

With what appears another spoke moving along the B-ring

R-RGB

22:05-23:54

Animation of Saturn in RGB lights showing a nice big storm on Saturn.
20:58 - 23:38 UTC.

This one is in red light:


And another in red light but in much higher contrast:

Saturn and Tethys during good seeing conditions. Not perfect, because the blue channel was noticably worse than the red channel, but for the altitude (37 degrees) I don't think you can get much better!

The image is an R-RGB recording.



In the bottom animation (22:15-23:41) you can again see a black dot moving around the B-ring. Similar to what is seen in the April 22 and March 10 images. Spokes?

My best Saturn recording under pretty good seeing conditions. It shows several storms and cloud structures rotating between 01:01 and 02:30 UTC.

Also, I believe a spoke is visible on the ring structure at the right of Saturn. Look closely, and you'll see a black structure moving from right to left and back again in the lower right ring structure.

All unages are R-RGB images (10 in total).

The animation consists of 17 sets of RGB data, manually aligned and processed in Photoshop. The images were shot between 21:21 and 23:16 UTC, March 9 2010.

Shot with the modified DMK21 camera with icx618ala ccd, at 1/54s for every channel.

The recordings are shot between January 25 22:09UT and January 26 02:45UT, so you can see Mars rotating in about 4 hours and 30 minutes. I used 29 sets of R, G B recordings, and manually combined those to 29 color images, and then I had to align and rotate them to finally create the animation. I might have another go at processing in the future though, because i'm not too pleased with how the noise level turned out.