UFO'S of UAP'S, ASTRONOMIE, RUIMTEVAART, ARCHEOLOGIE, OUDHEIDKUNDE, SF-SNUFJES EN ANDERE ESOTERISCHE WETENSCHAPPEN

The new photos, which were taken Tuesday (Nov. 1) and released today (Nov. 3), show several bright spots near the main crater where Schiaparelli hit. These features were also visible in previous MRO images, though, at the time, it wasn't clear whether they were just "noise." But it's now apparent that the spots are real objects — probably fragments of Schiaparelli, ESA officials said.

MRO's new views also reveal that a large structure believed to be Schiaparelli's parachute has changed configuration since last week's photos were taken, likely because of the Martian wind, ESA officials said. (The same effect was visible in MRO images of the parachute that helped NASA's Mars rover Curiosity land in August 2012, they noted.)

There are three distinct parts of the overall Schiaparelli crash site: the crater gouged out by the lander itself; the spot about 0.9 miles (1.4 kilometers) away where the parachute and its attached rear heat shield came down; and another feature that appears to be the spacecraft's front heat shield. MRO imaged these first two areas in color, but its new photos of the front heat shield are still in black and white.

These images taken by NASA's Mars Reconnaissance Orbiter on Nov. 1, 2016, show the wreckage of Europe’s Schiaparelli lander, which crashed on the Red Planet on Oct. 19, 2016. At top is the crater caused by the lander’s impact; at bottom left is the craft’s parachute and attached back heat shield. The feature at bottom right is thought to be the front heat shield. The 10-meter scale bar applies to all three portions of the image.
**Credit: NASA/JPL-Caltech/Univ. of Arizona**

There should be more photos coming soon.

"Further [MRO] imaging is planned in about two weeks, and it will be interesting to see if any further changes are noticed," ESA officials wrote in a statement today. "The images may provide more pieces of the puzzle as to what happened to Schiaparelli as it approached the Martian surface."

An investigation into the events of Oct. 19 is ongoing, and could be wrapped up sometime this month, ESA officials have said.

Schiaparelli launched with another spacecraft, called the Trace Gas Orbiter (TGO), in March. Together, the two probes make up the first part of the two-phase ExoMars program, which ESA leads with help from its chief partner, the Russian federal space agency, known as Roscosmos.

The second part of ExoMars is a life-hunting rover, which is currently scheduled to launch in 2020 and land on the Red Planet in 2021. Schiaparelli's main goal was to prove out the technology needed to get this rover down safely; the data gathered during the descent on Oct. 19 should be useful for this future effort, ESA officials have said.

TGO aced its orbit-insertion burn on Oct. 19 and is currently looping around the Red Planet along a highly elliptical path every four Earth days, just as planned. The spacecraft will make its first science observations at Mars during two orbits that begin Nov. 20, ESA officials said.

Early next year, TGO will begin shifting to a circular orbit that lies 250 miles (400 km) above the Martian surface. The probe should reach this final orbit in March 2018, at which point it will begin its official two-year science mission. The chief goals of this mission involve hunting for methane and other gases that could be signs of Martian life.

TGO will also serve to relay communications from the ExoMars 2020 rover and other surface Red Planet craft back to controllers here on Earth before ending operations in 2022.

Follow Mike Wall on Twitter @michaeldwall and Google+. Follow us@Spacedotcom, Facebook or Google+. Originally published on Space.com.

JunoCam participant Matt Brealey wrote about this image: "An image constructed from the perijove 1 raw images, using common Visual Effects techniques, in The Foundry's 'Nuke' compositing software."

Credit: NASA, SwRI, MSSS & Matt Brealey copyright CC BY

A camera flying aboard NASA's current mission to Jupiter is snapping stunning new images of the gas giant's stormy surface, and enabling members of the public to take an active role in this historic mission.

The Juno probe is flying closer to Jupiter than any spacecraft has done in history, coming to within about 3,100 miles (5,000 kilometers) of the giant's stormy cloud tops. Its primary science mission is to gather information about the planet's interior — peering through its thick cloud layers and all the way down to its rocky core.

The JunoCam instrument is an exception: It takes pictures of the surface of Jupiter's cloud tops. Its mission is primarily to serve as an outreach tool: The data that is sent back to Earth is made available to the public, and "citizen scientists" are welcome to process the images and try to learn from them. Looking ahead, members of the public will be able to vote on which features JunoCam should eye next. [Jupiter Shines in Scientific and Artistic Images by Citizen Scientists (Gallery)]

The creators of the JunoCam outreach program wanted to "involve the public in every aspect of what an imaging team would ordinarily be doing," according to Candy Hansen, a Juno co-investigator and head of the JunoCam team. Hansen discussed the project during a press briefing at the 2016 meeting of the American Astronomical Society Division for Planetary Sciences (AAS DPS) in Pasadena, California.

People who participate in JunoCam get to see what scientists go through during a mission — "the good days and the more challenging days, and to sort of live our lives with us," Hansen said. The goal is to allow the public to join the mission "in a participatory way, not a passive way."

Juno arrived at the Jupiter system in August, and its orbit is highly elongated, so that it comes very close to Jupiter (for only a matter of hours), and then swings far out into space. This path allows the probe to loop in between the planet's cloud tops and a ring of very intense radiation that wraps around Jupiter, which could easily destroy the electronics on board. Such a path also brings Juno closer to Jupiter than any probe in history. Juno is currently on a 53-day orbit, but it may still drop down to a 14-day orbit.

So far, JunoCam has only sent one batch of data back to Earth (since Juno has only made one close flyby with its instruments turned on). The JunoCam team posted "raw images" to the JunoCam website, and already public participants have used them to post dozens of processed images to the website. Some of the images have been processed to make it easier to see storms and physical features in Jupiter's clouds; others have been processed to create visually engaging works of art.

**This detailed image is a collaboration between image processor Gerald Eichstädt and astronomer John Rogers.**
**Credit: NASA / SwRI / MSSS / Gerald Eichstädt / John Rogers copyright CC BY**

Citizen scientists

On the JunoCam website, people can submit processed images, and then discuss their results and techniques in the discussion section. Or, if the participants aren't processing images, they can just ask questions of the people doing the processing.

JunoCam participant Matt Brealey told Space.com that he has been "attempting to use software from the Visual Effects industry" to process the images from JunoCam. (You can see examples of his work here and here, and you can read an article he wrote about his technique here).

"I've been fascinated by space imagery for as long as I can remember, so suddenly realizing that I could in some small way be a part of creating new images was extremely exciting," Brealey told Space.com via email. "That combined with the technical challenge of using tools from the VFX industry really [piqued] my interest in the project."

The skill level among the participants varies, according to Gerald Eichstädt, a software programmer who has been processing images from JunoCam with software he wrote especially for this project (which puts him at the upper end of the skill-level spectrum). He told Space.com that many people are using commercially available software, including some that's provided on the JunoCam website.

"JunoCam images provide challenges on almost any level; you can improve your skills according to your individual capabilities," he wrote. "To squeeze out as much as possible from the JunoCam images, you need more than (technical) skills; you also need to apply your skills, either by using existing software in an appropriate way, or by developing and applying appropriate software. But there are also many things you can do with consumer software. Good creative ideas are another important factor and may well be able to compensate [for] less technical skills."

Eichstädt said that he has been working with people who have skills that are different from his own (such as extensive knowledge about Jupiter's surface features), and he has been working with them to get more out of the images he makes. He said he has processed thousands of images and has posted most of them to his own website to avoid flooding the JunoCam website.

Participants can post their processed images to the mission website for others to see — Hansen said she definitely wants people to share the images, not just "post them to their private Facebook page." The goal of some of the processing is to analyze the different features that the instrument sees on the surface, while other images are processed with the aim of creating amazing aesthetic value. Some images accomplish both of those things.

"It's pretty cool that a lot of processed images are collected in one place and people can discuss them," Roman Tkachenko, a citizen scientist who is processing JunoCam images, told Space.com. Tkachenko's images focus on identifying swirling storms and other prominent features in the atmosphere. "Many amateur image processors face the problem of having no opportunity to show their work to the public, because their audience on social media is too small. This project partially solved that problem, at least regarding images taken by Juno spacecraft."

While the JunoCam instrument is not part of the probe's suite of science instruments, its first snapshots of Jupiter revealed never-before-seen features of the Jovian giant, including clusters of storms near the planet's north pole, and a cyclone stretching 52 miles (85 km) above the base surface level, according to Scott Bolton, Juno principal investigator. Bolton discussed the early results during the same press briefing at the 2016 AAS DPS meeting.

"I've not the funding to do a space mission myself, so I can save a lot of time and money by joining an existing mission funded mostly by the U.S. taxpayers," Eichstädt wrote. "Processing JunoCam images is very challenging for most people, and I knew that I would be able to do it; so it's to some degree an honor and a duty to give the U.S. taxpayers something back."

A leap of faith

Besides image processing and the discussion board, the JunoCam project has two other key features. First, the JunoCam team is asking amateur astronomers to post telescopic images of Jupiter and other data that is gathered from Earth. Those uploads are then used to help Juno team members plan what JunoCam will image during upcoming flybys of Jupiter. Some of the images that have been processed are using that data already: Some of the user-submitted image show how the features that are seen in the JunoCam image correlate with the features that are seen in images of Jupitertaken by previous space or ground-based instruments.

"That allows us to connect what we're seeing from our different perspective to the historical record of the dynamics of Jupiter's atmosphere," Hansen said.

The final task that the JunoCam project will pose to the public is voting on which features will be imaged during future flybys. JunoCam can't take pictures continuously while Juno is making its close flyby of Jupiter, so the organizers have to be selective. Hansen said there will be a "partial vote" for what JunoCam should focus on during its next close approach on Dec. 11. Full voting will take place for the following close approach, scheduled to take place on Feb. 2.

"We took a real leap of faith with this experiment with the public — that people would actually think this is cool and participate," Hanse said. "And I'm really so pleased with the response that we've gotten. I really feel like our leap of faith was justified."

Follow Calla Cofield @callacofield. Follow us @Spacedotcom, Facebook and Google+. Original article on Space.com.