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ZWO ASI290MM/EFW 8 x 1.25"
Meade LX850 (12" f/8)/TV 2.5x PowerMate
Losmandy G11
10 RGB Runs (18ms, gain 420, 2500 frames/filter) captured in FireCapture
Preprocessed in PIPP
Best 50% of frames stacked in Autostakkert
Wavelet Sharpened in Registax
De-rotated in WINJUPOS
Finished in Photoshop
Mars continuing to recede from the Earth but is still shining brightly.
Celestron Edge HD11 scope, Televue 2.5x Powermate and ZWO ASI224MC camera with ADC
A jagged slice in a crater wall on Mars stands out brightly against the darker terrain in this image taken by the CaSSIS camera on the ESA-Roscosmos ExoMars Trace Gas Orbiter at 7pm local time on 1 May 2021.
Despite the low light in this late evening image, several north-facing icy scarps are distinctly visible because of their covering of bright white carbon dioxide frost. The frost disappears in spring, but remains late on these scarps because of their pole-facing orientation.
This 11 km diameter crater is located in the northern plains of Mars at 55°16'51.6"N/106°25'3.4"W, north of Alba Mons.
TGO arrived at Mars in 2016 and began its full science mission in 2018. The spacecraft is not only returning spectacular images, but also providing the best ever inventory of the planet’s atmospheric gases, and mapping the planet’s surface for water-rich locations. It will also provide data relay services for the second ExoMars mission comprising the Rosalind Franklin rover and Kazachok platform, when it arrives on Mars in 2023.
Credits: ESA/Roscosmos/CaSSIS, CC BY-SA 3.0 IGO
Venus shot in IR and UV light, London, 8th February 2020
Celestron Edge HD11, ASI174MM camera
IR image mapped to red channel, UV mapped to blue channel and a synthetic green channel comprised of 50%blend of IR and UV
This combination of filters enables cloud structures to be seen
This image captured by the CaSSIS camera on the ESA-Roscosmos ExoMars Trace Gas Orbiter on 19 May 2021 features active dust devils northeast of Amazonis Planitia (35.2°N/210.1°E).
Dust devils usually appear as small vortexes and slightly bluer in CaSSIS false colour composite images like these. These dust vortexes often ‘clean’ the surface by removing a thin dust layer, leaving a dark trail behind known as a dust devil track.
Dust devils on Mars form in the same way as those on Earth: when the ground gets hotter than the air above it, rising plumes of hot air move through cooler denser air, creating an updraft, with the cooler air sinking and setting up a vertical circulation. If a horizontal gust of wind blows through, the dust devil is triggered. Once whirling fast enough, the spinning funnels can pick up dust and push it around the surface.
This image was acquired in the middle of spring in the northern hemisphere of Mars, a season that is characterised by increased dust devil activity.
TGO arrived at Mars in 2016 and began its full science mission in 2018. The spacecraft is not only returning spectacular images, but also providing the best ever inventory of the planet’s atmospheric gases, and mapping the planet’s surface for water-rich locations. It will also provide data relay services for the second ExoMars mission comprising the Rosalind Franklin rover and Kazachok platform, when it arrives on Mars in 2023.
Credits: ESA/Roscosmos/CaSSIS, CC BY-SA 3.0 IGO
I think the universe is pure geometry - basically, a beautiful shape twisting around and dancing over space-time.
~ Antony Garrett Lisi
Jupiter and moon Europa imaged from London on 24th March 2017
IRRRGB image shot using a Celestron Edge HD1 scope, Televue 2.5x Powermate and ASI174MM camera
A ten-exposure HDR composite of tonight's waxing crescent moon, captured and processed identically to earlier HDR composites of the moon.
What set this one off, was a few high clouds traipsing by.
Beautiful Saturn blew me away when i first saw her. Taken back in 2014 Nikon D5000 eyepiece correction. Skywatcher 150p Newtonian telescope. Saturn at its closest to Earth is 746 million miles.
ZWO ASI290MM/EFW 8 x 1.25"
Meade LX850 (12" f/8)/2.5x PM
Losmandy G11
5 x 30s RGB runs captured in FireCapture
Best 50% of ~11,000 frames per filter stacked in Autostakkert
Wavelet sharpened in Registax
Color channels separately derotated, then R/G/B derotation in WINJUPOS
Finished in Photoshop
North is up. This image is derived from a single RGB run captured in Firecapture, stacked in Autostakkert, wavelet sharpened in Registax, and color channel derotated in WINJUPOS.
Seeing was Average at capture. I had hoped to stack and sharpen in PSS, but the result was disappointing. I have four more RGB captures that can be derotated and added to this data. I feel like I am missing something with PSS, which is still new to me. I'll take a deeper dive when time permits.
El Sol, nuestra estrella particular, la que nos proporciona la energÃa necesaria para la vida.
Sin él, no existirÃamos.
Canon eos 600D modificada y refrigerada.
Objetivo Sigma 70/300 apo a 300mm.
Filtro solar + filtro Baader BCF.
Single shot.
Mars92% illumination 7 Dec 2020,Celestron SLT 5 inch, Televue 2.5x, ZWO 294C, cooled @ 0 degree. 5000 frames stacked by Autostakkart 2, Processed in Registax 6
A touch of Windmill sail a small chance of a meteor and the Expanse of the our known solar system and beyond.
This image, based on observations from NASA’s Dawn spacecraft, shows the largest mountain on the dwarf planet Ceres.
Dawn was the first mission to orbit an object in the asteroid belt between Mars and Jupiter, and spent time at both large asteroid Vesta and dwarf planet Ceres. Ceres is one of just five recognised dwarf planets in the Solar System (Pluto being another). Dawn entered orbit around this rocky world on 6 March 2015, and studied its icy, cratered, uneven surface until it ran out of fuel in October of 2018.
One of the features spotted by the mission is shown here in this reconstructed perspective view: a mountain named Ahuna Mons. This mountain rises to an elevation of 4000 m at its peak – Europe’s Mont Blanc on Earth would rise slightly above it (as measured from sea level) – and is marked by numerous bright streaks that run down its flanks. Scientists have determined that these marks are actually salt deposits left behind from the formation of Ahuna Mons, when plumes of saltwater and mud rose and erupted from within Ceres, puncturing the surface and creating the mountain seen here. While temperatures on Ceres are far colder than those on Earth, this mechanism is thought to be somewhat similar to the formation of volcanoes by terrestrial magma plumes.
More recently, a study of Dawn data led by ESA research fellow Ottaviano Ruesch and Antonio Genova (Sapienza Università di Roma), published in Nature Geoscience in June, suggests that a briny, muddy ‘slurry’ exists below Ceres’ surface, surging upwards towards and through the crust to create Ahuna Mons. Another recent study, led by Javier Ruiz of Universidad Complutense de Madrid and published in Nature Astronomy in July, also indicates that the dwarf planet has a surprisingly dynamic geology.
Ceres was also the focus of an earlier study by ESA’s Herschel space observatory, which detected water vapour around the dwarf planet. Published in Nature in 2014, the result provided a strong indication that Ceres has ice on or near its surface. Dawn confirmed Ceres’ icy crust via direct observation in 2016, however, the contribution of the ice deposits to Ceres’ exosphere turned out to be much lower than that inferred from the Herschel observations.
The perspective view depicted in this image uses enhanced-colour combined images taken using blue (440 nm), green (750 nm), and infrared (960 nm) filters, with a resolution of 35 m/pixel. Ahuna Mons’ elevation has been exaggerated by a factor of two. The width of the dome is approximately 20 km. The spacecraft’s Framing Camera took the images from Dawn’s low-altitude mapping orbit from an altitude of 385 km in August 2016.
Credits: NASA/JPL-Caltech/UCLA/MPS/DLR/IDA
Comet C/2023 P1 (Nishimura) September 3, 2023. This comet is bright enough to photograph with a small telescope and should be visible in binoculars (I didn't try until the sky was too bright so didn't see it), but not naked eye. The nice, long, straight tail stretches nearly to the corner of this frame.
Composite of 20 exposures, 2 minutes each. Explore Scientific ED102 102mm f/7 apochromat, ZWO ASI294MC Pro cooled CMOS camera, ZWO UV/IR cutoff filter, Losmandy GM811G mount, ASIAir Pro controller, autoguided. Processed in Astro Pixel Processor, Lightroom, Photoshop
The exhibition will offer visitors the chance to explore the solar system in an innovative presentation where sizes and location of the various planets will appear to be real.....
A quick process of Jupiter and Io with 685nm IR pass filter from 4th April 2016
Celestron Edge HD11, ASI120MM, Powermate 2.5x
Processed using AS!2, Registax6 and PS CS6
Lunar mosaic 6 panels with Zwo Asi 290MC, Skywatcher newton 150/750 pds on Skywatcher neq6 pro2 mount.
Pallasite NWA 16774, 4.7 g.
Olivine crystals in an Fe–Ni metal network, with scattered dark inclusions (likely sulfides/opaques).
Image credit : Thomas Thomopoulos
ZWO ASI290MM
Meade LX850 (12" f/8)/2.5x PowerMate
Losmandy G11
1.3s x 30 L frames captured in Firecapture
Best 25 frams stacked in Registax
Finished in Photoshop
On July 14, New Horizons mission scientists will soon obtain the first images of the night region of Pluto, using only the light from Charon, itself softly illuminated by a Sun 1,000 times dimmer than it is at Earth.
This image looks almost decent, but there are some issues that I want to work on. As for softness, I am well-collimated and I prefocused on Alderaban, but average seeing could be an issue. I can add an IR/UV cut filter. I noticed an image size issue in WINJUPOS when making the measurements in the wire frame. It seems that IR, which I used for the R channel, is much less intense than the G or B channels. Because of this the IR image appeared somewhat smaller than the G or B channel images. I am going to go back to using the Red filter for the R channel.
10 iRGB runs (60s and 34,000 frames/filter) in Firecapture.
Best 10% stacked in Autostakkert
Wavelet sharpening in Registax
Derotation in WINJUPOS
Finishing in Photoshop
ZWO ASI290MM/EFW 8 x 1.25x
Meade LX850 (12" f/8)/2.5x PowerMate
Losmandy G11
A change of tactics for my latest image of Saturn. Rather than using my usual colour camera, I used a mono camera and filter wheel to capture each of the colour channels separately. While this is a little more time consuming, and I still have a lot I could improve on, I think the results are already noticeably better than my previous attempts.
This image was captured using a Sky-Watcher SkyMax 180 Pro telescope and an Altair GPCam 290M mono camera with a ZWO Mini Electronic Filter Wheel and Astronomik Filters (Luminance, Red, Green and Blue). It is the result of 3000 frames for each channel, captured using Firecapture. Each channel was separately stacked in AutoStakkert2 and pre-processed using Registax 6. The channels were then aligned using WinJUPOS before being combined and processed using PhotoShop CC.
Something a little different today! This is a composite image of the sun, showing the surface detail and prominences, while being photobombed by a passing plane.
The image was taken using an Altair GPCAM 290M with a 0.5x focal reducer, attached to a Lunt LS50Tha 600B PT solar scope. The image was captured using SharpCap Pro, pre-processed using AutoStakkert2 and Registax6, with final processing done using Photoshop CC.
Taken from the best 104 of 150 frames of an SER file shot with a ZWO ASI224MC camera with UV/IR Cut filter through the C14 at Cerritos College. Frames were stacked in AutoStakkert, sharpened and color corrected in PixInsight. The resulting image was touched up in GIMP.
This shows Mars emerging from behind the lunar limb at 2025-01-14 02:45:11 UTC. Mare Undarum appears at the left edge of the frame, and the crater Neper is visible just above where Mars appears.