Can You Solve This Apollo 1 Spacesuit Mystery?

Apollo 1 astronauts (from left) Virgil "Gus" Grissom, Edward White and Roger Chaffee stand near Cape Kennedy's Launch Pad 34 during training. Credit: NASA

Reader Jeff Arnoldi recently approached me with an intriguing question about this Apollo 1 picture:

Note that the U.S. flag is on their right shoulders. Every other Apollo mission crew and all mission crews since then wear the flag on their left shoulders.  Did the astronauts change after the Apollo 1 fire?  Why did they make the change?

In response, Universe Today put a call out to several people with knowledge of those spacesuits that were used in the Apollo 1 mission, which ended fatally in January 1967 when all three crew members died in a pad fire.

A lot of redesigns were made to the equipment to prevent the same situation from happening again, but it appears the flags were not that crucial to the spacesuit design — even though a new spacesuit was used in Apollo 7.

Weeks of searching later, we have some great theories from the experts about why the flags were switched, but no definitive answer. Feel free to let us know if you have heard anything!

There’s some important historical context about the suit that we’ll get into in a moment, but first, here’s some feedback we received from a few spacesuit experts:

The Apollo 1 crew training at North American's Downey Facility. Note the flags aren't on the spacesuits in this shot. Left to right: Virgil "Gus" Grissom Roger Chaffee, Edward White. Credit: NASA
The Apollo 1 crew training at North American’s Downey Facility. Note the flags aren’t on the spacesuits in this shot. Left to right: Virgil “Gus” Grissom Roger Chaffee, Edward White. Credit: NASA

Walter Cunningham, Apollo 7 astronaut and backup crew member for Apollo 1:

Our crew, obviously, wore both. We were concerned about flexibility and security of the suits. We had no time to be concerned with style or decorations. I know of no policy decision on the question you asked.

Shawn McLeod, field operations manager for David Clark Co. (which constructed the suit):

Our archives indicate photos in the field of the Apollo A1-C suits both with and without the U.S. flag. Based on our literature search, our team believes positioning/placement of the U.S. flag was more than likely performed in the field after the suits were delivered from David Clark Company. Field installation of patches is not unusual – especially, for a program as fast-paced as Apollo. […]

Anecdotal evidence leads us to believe that the flags were sewn on whichever arm there was room. The left arm has a pencil pocket, and maybe with the pencils sticking out they would cover part of the flag, whereas the right arm has the neck seal pocket and a little more room. Furthermore, the referenced photo shows the flag was incorrectly positioned per U.S. Flag code. If they wanted to use a flag on the right sleeve, they would need to use the version with the field of stars facing forward. Perhaps someone noted that at some point and the correction was made.

Ronald Woods, NASA spacesuit expert for 45+ years:

I spoke with one of the suit technicians that supported Apollo 1 and he didn’t remember the flags being on the right arm. I have seen them in several pictures of the Apollo crew at different events, all on the right arm.  Not sure at this time why and who may have sewn them on. During Apollo, we technicians would only sew the crew patches on the flight suits several weeks before launch.

Nicholas de Monchaux, author of Spacesuit: Fashioning Apollo:

I think there is a simple explanation, which is that the Apollo 1 suits were modified Gemini suits made by the David Clark Co., and the Apollo 7 suits were the first generation of [newer manufacturer] ILC suits. My guess is that two different manufacturers took two different approaches.

Apollo 1's crew in another spacesuit shot. From left to right: Virgil "Gus" Grissom, Edward White and Roger Chaffee. Credit: NASA
Apollo 1’s crew in another spacesuit shot. From left to right: Virgil “Gus” Grissom, Edward White and Roger Chaffee. Credit: NASA

To learn more about this type of Apollo spacesuit, Universe Today approached Cathy Lewis — a curator who specializes in spacesuits at the Smithsonian National Air and Space Museum.

Intriguingly, it appears every NASA spacesuit that has a flag on it — besides the A1-C used in Apollo 1 — has its flag on the left. More from Lewis:

In all other suits in our collection where a flag is present, the flag is on the left.  The collection includes suits made for NASA for programs and those made as prototypes and suits made for the USAF [United States Air Force] for the Manned Orbiting Laboratory program.  Just as a note there were no flags in the Mercury suits that B.F. Goodrich made for NASA.

As the Bill Nye: The Science Guy show used to repeat … but wait, there’s more.

Lewis also gave us some great background on the suits used for Gemini and Apollo. The Apollo missions actually had two different sets of pressure garments — the A1-C and the A7-L, while the Gemini missions used the G4-Cs. Essentially, the G4-C and A1-C suits were the same thing (a high-altitude suit design adapted for space), made by the same prime manufacturer — David Clark Co. The next set of suits, the A7-L (made exclusively for space work), had ILC Dover as the prime manufacturer.

Lewis added that she does not see the flag switch as being tied to the change in manufacturer.

Gemini 4 astronaut Jim McDivitt reviewing a crew procedures book in a trailer on the way to the launch pad. His flag was on the left shoulder. Credit: NASA
Gemini 4 astronaut Jim McDivitt reviewing a crew procedures book in a trailer on the way to the launch pad. His flag was on the left shoulder. Credit: NASA

Lewis did a great job summarizing a lot of history in a few paragraphs, so we decided to include her entire e-mail here.

It is not likely to have anything to do with the manufacturers per se, because, DCC had placed the flag on the left shoulder for the Gemini program. The shift between DCC and ILC is a very long and complex story that began in 1962 with the first solicitations for suit prototypes for the Apollo program. ILC was selected as the suit manufacturer in 1965 with Hamilton Standard as the primary contractor by virtue of their government contracting and systems engineering experience.

That corporate relationship fizzled and left NASA with the option of putting off the design of the Moon-walking suits and falling back on their Earth orbital experience with DCC and Gemini for the early, Earth-orbiting Block I missions.

While DCC was making A1-C suits based on the G4-Cs that Ed White had used for the first US spacewalk, they were also competing with ILC, HS and others for the new Moon-walking suit contract.

The 1967 Apollo 204 fire changed NASA’s plans for different Block I and Block II (lunar orbiting and lunar landing) spacesuits. The resulting contract went again to ILC as primary with HS [Hamilton Standard] as sub with responsibility for the life support systems and systems integration for a suit that worked in Earth and lunar orbit and moon-walking.

Unless I am missing something, I don’t see an engineering issue over the placement of the flag.

If you have any other thoughts about why the flag switch occurred, feel free to let us know in the comments!

Why An Astronaut Asked 15 Year Old Abby to Help Get The Word Out

Expedition 36/37 flight engineer Luca Parmitano will -- in an unprecedented move -- send updates from space through a Minnesota teenager. Credit: NASA/Lauren Harnett

It seems an unlikely scenario: a teenager from Minnesota helping Italy’s next astronaut talk to the public about spaceflight. But for Luca Parmitano, who has mentored Abigail “Abby” Harrison for two years, it’s a way to reach out to a young audience. For Abby, it brings her closer to her dream of becoming an astronaut herself.

Parmitano does have the official outreach team available through the Italian Space Agency (which is part of the European Space Agency) and NASA, he acknowledged. Official mission reports will proceed as usual through those agencies’ press releases and social media accounts.

He’s pursuing this partnership with Abby, however, to have an additional “channel” targeted directly at children and teenagers, Parmitano told Universe Today:

It’s very simple. I thought one of the most important things that I can do in my job is talking to young people, youngsters, and try to inspire them try to guide them towards choosing a career path that goes towards science, technology, exploration of all sorts.

My message is to try to find something that you like, and to pursue it, and don’t wait for things to happe, but make it happen yourself. At one point, talking to Abby — this fantastic young girl who is so enthusiastic — I thought maybe she would be much better at communicating with kids than I could. I’m 36 years old. Maybe I don’t realize it, but I may be disconnected from the age group.

Parmitano is no social media pushover himself, though. The first-time flyer has a “landing page” website at LucaParmitano.com giving one-stop shopping for his Twitter, Facebook and Google pages. And just last week, he did a Google+ hangout with his protégé. (You can watch the whole thing below.)

Abby, at the tender age of 15, has amassed qualifications of her own. The Minnesota teenager is a Space Camp alumnus. She’s planning to learn Russian — an important language for the space program — and is already taking lessons in Mandarin. Her Twitter account has about 6,500 followers. And she’s raising money on Rockethub to see Parmitano’s launch in Kazakhstan next month and do outreach afterwards. With 19 days left, Abby’s approaching half of her $35,000 goal.

The aspiring Mars astronaut has a huge list of activities planned during Parmitano’s mission. She’ll share daily updates from the astronaut on her blog (AstronautAbby.com) and various social media profiles. She proposes an “Ask Luca” series where readers will be able to send questions to the Italian astronaut.

There also will be articles to write, Skype classroom chats to do, and a conference tour — including the International Mars Society Convention in August. Besides the social media updates, Abby is in the midst of booking appearances at conferences and scheduling chats with classrooms. There are more than 20 schools who have signed up for her to be a speaker, either in-person or by Skype.

“That is great, because I won’t be able to be there,” Parmitano said with a laugh.

It was two chance connections that brought him together with Abby. In 2011, Abby and her mother flew to Florida to see the penultimate launch of the space shuttle, mission STS-134. Abby’s mother, Nicole, briefly talked to Parmitano at a tweetup. Then Abby herself met Parmitano at the airport while waiting for the flight home.

Abigail Harrison, who calls herself "Astronaut Abby", will give updates from Luca Parmitano's mission. Credit: Abigail Harrison/Nicole Harrison
Abigail Harrison, who calls herself “Astronaut Abby”, will give updates from Luca Parmitano’s mission. Credit: Abigail Harrison/Nicole Harrison

The teenager and astronaut, who both had space dreams from young childhood, made a professional connection. Parmitano agreed to be Abby’s mentor. The two kept in touch in the years following, then Abby proposed her outreach program to compliment ESA’s activities.

“The main difference [over ESA’s outreach] is when it’s my program, it’s kid to kid. I’m trying to show that by working hard, you can do great things, and I’m an example of that,” Harrison said. “As an aspiring astronaut, you can meet amazing people and have amazing experiences.”

As a rookie, Parmitano said he is looking forward to the experiences his first spaceflight will bring, no matter who is watching. He joked that Italy does not really pay attention to him as an astronaut — the media flock to Samantha Cristoforetti, Italy’s first female astronaut, who is expected to reach station on Expedition 42/43.

“From Day 1, since we were selected, every news magazine went crazy for the female astronaut — and by the way, there’s another guy. I started introducing myself as ‘the other guy.’ ”

But the mission is still a notable one for Italy. Parmitano is the first assigned to a flight from the European Space Agency’s latest class of six astronauts, who call themselves The Shenanigans. The Italian Space Agency got this chance due to a substantial hardware contribution to the station program: a modified multipurpose logistics module (Leonardo) that was adapted for use as a laboratory on station. It and two other MPLMs (Raffaello and Donatello) ferried cargo on shuttle flights to use on station, too.

Parmitano will perform the first Italian spacewalk — two of them are planned, in fact. He and crewmate Chris Cassidy (a former Navy SEAL who spoke with Universe Today last month) are scheduled to go outside in July to swap out experiments, put up a blanket to shield part of the station from space exposure, and install new orbital replacement units to upgrade certain ISS functions.

Expedition 35/36 astronaut Luca Parmitano will perform two spacewalks during his mission. Credit: NASA/Lauren Harnett
Expedition 36/37 astronaut Luca Parmitano will perform two spacewalks during his mission. Credit: NASA/Lauren Harnett

In between, of course, Parmitano has dozens of experiments to work through — contributions from various station partners ranging from Japan to Canada.

An Italian one he speaks of frequently involves him deliberately setting controlled fires on station. Called ICE-GA (Italian Combustion Experiment for Green Air), it’s intended to seek renewable fuels that are less polluting than what we use today. Results will be used for future space fuels, and also on the ground to reduce toxic emissions.

Despite his high-flying duties, Parmitano plays down any adulation from Abby.

“She’s a tremendous young lady, and she has enthusiasm to sell, and maturity way beyond her age,” he said. “It’s really an honor for me to be called her mentor. I learn from her more than she learned from me.”

As for how Abby plans to get to Mars, first she is figuring out what interests her to narrow down her university choices.

Abby, who is entering her junior year in high school next year, is conscious that time away from school is hard to do when starting to think about university applications. She’s working out alternative scheduling arrangements with her teachers and keeping them apprised of what could be a busy speaking schedule in the coming months.

She’s still mulling her options for university — perhaps the United States Air Force Academy, or maybe studying geology at the University of Colorado. Along the way, she’ll keep in contact with Parmitano.

“How important it is to work hard was really the main subject of our discussion [at the airport],” Abby said, “and how if you have a dream and you set a goal, you can achieve it with hard work.”

SpaceShipTwo Fires Rocket Engines for First Ever Supersonic Test Flight- Photos & Video

SpaceShipTwo fires her rocket motor in flight for 1st time on April 29, 2013. Credit: MarsScientific.com

SpaceShipTwo fires her rocket motor in flight for 1st time on April 29, 2013. Credit: MarsScientific.com
Updated with more Photos & Video[/caption]

In a momentous and long awaited day in spaceflight, Virgin Galactic’s SpaceShipTwo (SS2) commercial spaceliner named “Enterprise” lit up her hybrid rocket engines in flight and reached supersonic speeds for the first time in history, today, Monday, April 29, 2013 – in the skies over the Mojave Desert in California.

“What a feeling to be on the ground with all the team in Mojave to witness Virgin Galactic go faster than the speed of sound,” wrote Virgin Galacic founder and owner, billionaire Sir Richard Branson, a short while ago.

Branson wants to bring the incomparable joys of human spaceflight– including weightlessness and spectacular views of the Earth’s curvature- to the masses. Thus making science fiction fantasies of the future like “2001: A Space Odyssey” and “Star Trek” a reality – TODAY!

“This is a momentous day and the single most important flight test to date for our Virgin Galactic program,” said Branson from the Mojave Air and Space Port. “What a feeling to be on the ground with all the team in Mojave to witness Virgin Galactic go faster than the speed of sound.”

ShaceShipTwo from Virgin Galactic fires its rocket engines for the first time in history on April 29, 2013 to achieve supersonic speed. Credit: Virgin Galactic
ShaceShipTwo from Virgin Galactic fires its rocket engines for the first time in history on April 29, 2013 to achieve supersonic speed. Credit: Virgin Galactic

The SpaceShipTwo test of Virgin Spaceship Enterprise was conducted by builder Scaled Composites, led by famed aerospace engineer Burt Rutan, and Virgin Galactic.

With Scaled Composites test pilots Mark Stucky and Mike Alsbury at the helm, the engine burn lasted about 16 seconds, exactly as planned and achieved a speed of Mach 1.2 – breaking the sound barrier!

Watch this video of today’s SS2 rocket test flight:

The test flight began at about 7:02 a.m. local California time as SpaceShipTwo took off from Mojave strapped to the belly of the WhiteKnightTwo (WK2) mothership.

SS2 was released from the mothership at an altitude of 47,000 feet (14 km) some 45 minutes into the flight.

“The pilots triggered ignition of the rocket motor, causing the main oxidizer valve to open and igniters to fire within the fuel case. At this point, SS2 was propelled forward and upward to a maximum altitude of 55,000 feet [17 km],” said Virgin Galactic in a statement.

SS2 is powered by RocketMotorTwo, developed by Sierra Nevada Corporation – which is also constructing the manned DreamChaser mini shuttle ‘space taxi’ under contract to NASA and aiming to restart launches of American astronauts from American soil to low Earth orbit and the ISS.

Boom camera shot of SpaceShipTwo breaking the sound barrier.  Credit: Virgin Galactic
Boom camera shot of SpaceShipTwo breaking the sound barrier. Credit: Virgin Galactic

“The first powered flight of Virgin Spaceship Enterprise was without any doubt, our single most important flight test to date,” said Branson, who watched the flight from the grounds of Mojave.

The entire fight lasted about an hour with SS2 gliding back for a safe landing at the Mojave Air and Space Port to conclude the history making flight.

Until today’s engine firing, the SS2/WK2 aerial test flight program had been limited to captive carry and landing drop tests.

Branson’s near term goal is for SpaceShipTwo to fly to space – commonly defined as 62 miles (100 km) altitude – for the first time before year’s end, validate the vehicle with a rigorous test flight program of gradually expanding the flight envelope to insure full operability and safety and then carry the first revenue paying passengers to space thereafter from Spaceport America in New Mexico.

“For the first time, we were able to prove the key components of the system, fully integrated and in flight. Today’s supersonic success opens the way for a rapid expansion of the spaceship’s powered flight envelope, with a very realistic goal of full space flight by the year’s end. We saw history in the making today and I couldn’t be more proud of everyone involved.”

Rumors that this rocket firing test flight was imminent had reached a fever pitch over the past few days, stoked by broad hints in open messages from Branson himself. So, a large group of Virgin employees and space enthusiasts were present today to witness the momentous event (see photos).

Sir Richard Branson hugs designer Burt Rutan as they are surrounded by employee's of Virgin Galactic, The SpaceShip Company and Scaled Composites watch as Virgin Galactic's SpaceShip2 streaks across the sky under rocket power, its first ever since the program began in 2005. Burt's wife Tonya Rutan is at right taking their photo. The spacecraft was dropped from its "mothership", WhiteKnight2 over the Mojave, CA area, April 29, 2013 at high altitude before firing its hybrid power motor. Virgin Galactic hopes to become the first commercial space venture to bring multiple passengers into space on a regular basis.
Sir Richard Branson hugs designer Burt Rutan as they are surrounded by employee’s of Virgin Galactic, The SpaceShip Company and Scaled Composites watch as Virgin Galactic’s SpaceShip2 streaks across the sky under rocket power, its first ever since the program began in 2005. Burt’s wife Tonya Rutan is at right taking their photo. The spacecraft was dropped from its “mothership”, WhiteKnight2 over the Mojave, CA area, April 29, 2013 at high altitude before firing its hybrid power motor. Virgin Galactic hopes to become the first commercial space venture to bring multiple passengers into space on a regular basis.

In the not too distant future, the purpose of SS2 is for everyday folks – not just highly trained astronauts – to experience spaceflight and out of this world views of the Earth below and the heavens above.

Eventually, human spaceflight could be as commonplace as flying aboard a commercial jetliner is today.

SpaceShipTwo can carry 8 people total; including a crew of two pilots and six passengers on suborbital missions to space.

Although SS2 cannot go into Earth orbit, Branson hopes that future varients will achieve orbit.

Branson himself will fly aboard the first commercial SS2 flight. Over 500 people have already plucked down over $200,000 to reserve the unprecedented choice seats.

“Like our hundreds of customers from around the world, my children and I cannot wait to get on board this fantastic vehicle for our own trip to space and am delighted that today’s milestone brings that day much closer,” said Branson.

The Commercial Spaceflight Federation quickly lauded the Virgin Galactic team and issued this statement:

“The Commercial Spaceflight Federation congratulates the team at Virgin Galactic and Scaled Composites for the first powered test flight of SpaceShipTwo today,” said CSF President Michael Lopez-Alegria.

“This incredible achievement is the direct result of the hard work and dedication by these two companies, as well as by RocketMotorTwo developer Sierra Nevada Corporation. Because of their efforts, we are one step closer to achieving safe, routine, and cost-effective access to space that will create abundant opportunities for space-based research and that will inspire the next generation of engineers and scientists. I applaud the team at Virgin Galactic and Scaled Composites for their accomplishment, and the team at Mojave Air & Space Port for their efforts in creating a professional and safe testing environment.”

In this era of stingy federal funding and slashes to NASA’s budget, commercial spaceflight will play a major and increasing role in bringing down the high costs of access to space as well as enabling an expanding science exploration program and private commercial space exploitation programs to open up the High Frontier.

Other private companies like SpaceX and Orbital Sciences are already leading the charge with regards to the commercial space exploration race with their Falcon 9 and Antares commercial rockets – now launching crucial cargo for NASA to the International Space Station (ISS) since the retirement of the Space Shuttle orbiters in 2011.

Ken Kremer

Experts Urge Removal of Space Debris From Orbit

Space debris has been identified as a growing risk for satellites and other space infrastructure. Credit: NASA

Action is needed soon to remove the largest pieces of space debris from orbit before the amount of junk destroys massive amounts of critical space infrastructure, according to a panel at the Sixth European Conference on Space Debris.

“Whatever we are going to do, whatever we have to do, is an expensive solution,” said Heiner Klinkrad, head of the European Space Agency space debris office, in a panel this week that was broadcast on ESA’s website.

“We have to compare the costs to solving the problem in an early stage as opposed to losing the infrastructure in orbit in the not-too-distant future.”

The panel estimated that there is $1.3 billion (1 billion Euros) worth of space satellite infrastructure that must be protected. The 200 most crucial satellites identified by the space community have an insured value of $169.5 million (130 million Euros), Klinkrad added.

Critical infrastructure, though not specified exactly by the panel, can include communication satellites and military eyes in the sky. Also at risk is that largest of human outposts in space — the International Space Station.

A view of the International Space Station as seen by the last departing space shuttle crew, STS-135. Credit: NASA
A view of the International Space Station as seen by the last departing space shuttle crew, STS-135. Credit: NASA

The conference concluded that without further action — even without launching any new rockets — it’s quite possible there could be a runaway effect of collisions producing debris within a few decades. Even a tiny object could act like a hand grenade in orbit if it smashes into a satellite, Klinkrad said.

A recent example of the problem: a piece of Chinese space debris smashed into a Russian satellite in March. It didn’t destroy the satellite, but altered its orbit.

To mitigate the situation, representatives suggested removing 5 to 10 large pieces of debris every year. They added they are uncertain about how soon a large problem would occur, but noted that the number of small objects is definitively increasing annually according to measurements done by the Walter Baade 6.5-meter Magellan Telescope.

“[It’s] something we haven’t know until now. We have been suspecting it is the case … this is a new result which is very important.”

While highlighting the risk, the European representatives of the panel added they are not standing idly by. Already, there are regulatory changes that could slow the problem for future launches — although there still will be cleanup to do from five past decades of space exploration.

Artist's conception of DEOS (German orbital servicing mission). Credit: Astrium
Artist’s conception of DEOS (German orbital servicing mission). Credit: Astrium

A few of the points brought up:

– German officials are working on an in-orbit satellite servicing solution called DEOS. “The DEOS project will for the first time demonstrate technologies for the controlled in-orbit disposal of a defective satellite,” Astrium, the prime contractor for the definition phase, wrote in a press release in 2012. “In addition, DEOS will practice how to complete maintenance tasks – refuelling in particular – that extend the service life of satellites.”

– France’s Parliament passed the Space Operations Act in December 2010. “Its chief objective is to ensure that the technical risks associated with space activities are properly mitigated, without compromising private contractors’ competitiveness,” French space agency CNES wrote on its website. “The government provides a financial guarantee to compensate damages to people, property or the environment.”

– A United Nations subcommittee of the Committee on the Peaceful Uses of Outer Space is working on space sustainability guidelines that will include space debris and space operations practices. More details should be released in June, although Claudio Portelli (a representative from Italy’s space agency) warned he did not expect any debris removal proposals to emerge from this work.

For more technical details on the space debris problem, check out the webcast of the ESA space debris conference.

Why Spacewalking Is All About The Hands

NASA astronaut Shane Kimbrough works outside the International Space Station in 2008. Credit: NASA

Think about your typical construction worker — there’s a lot of reaching, bending, stretching, lifting. How do you accomplish those tasks without gravity, as astronauts do on the International Space Station?

According to astronaut Shane Kimbrough — who should know, as he spent more than 12 hours “outside” doing station work and repairs during shuttle mission STS-126 in 2008 — instead of using your feet, you transfer most of the work to your hands. Your feet are basically used to brace yourself.

“You’re moving around, kind of walking with your hands, and pulling yourself in between the handholds and the rails,” he said to Universe Today, expanding on comments he made publicly at a conference last week.

Astronauts train for hours in a large pool known as the Neutral Buoyancy Laboratory, which includes a full-size model of the station modules inside. “You build up the [hand] strength in the NBL,” Kimbrough said, “with your hands fighting against the pressure of the spacesuit. If you didn’t do that, your hands would be fatigued [during a spacewalk.]”

It’s not a perfect training environment, though. “The big difference in the water is the drag it produces. You don’t realize you are floating, at times. If you’re moving along and walking with your hands down the rail, and you stop, you will immediately stop. In space, the mass of your spacesuit keeps going even if you stop. Your body will keep moving back and forth a few times, and using more energy when you need.”

Shane Kimbrough spent more than 12 hours outside the International Space Station during one mission. Credit: NASA
Shane Kimbrough spent more than 12 hours outside the International Space Station during one mission. Credit: NASA

During the shuttle era, astronauts tended to specialize in different areas of spaceflight — robotics and extra-vehicular activity (spacewalks) being some of the fields. The station, however, demands that astronauts be versed in both, Kimbrough said. Any crew could be called upon to do a repair on short notice, or to haul in a robotic spacecraft (like SpaceX’s Dragon) that arrives at station.

This means there’s a huge demand within NASA now for spacewalking expertise. Before stepping into the NBL, the astronauts run through the procedures in the classroom, and will get a look at the tools to make sure they understand their functions. Occasionally, a crew might pop on scuba suits to do a rough run of an expected spacewalk at the station, rehearsing where they should be and how they should position themselves.

A spacesuit really limits the astronaut’s range of motion, making the hours of training crucial. “For people like myself, with short arms, our work envelope is very small,” said Kimbrough, who is hoping for another flight assignment.

“It’s really out in front, not very far, in a circular motion. If you put your hand out in front, a small circle, that’s my work envelope. If I want to get something higher or lower, I can’t get there by reaching based on the way the [spacesuit] shoulder and arm operates. You maybe have to go sideways or upside down.”

November 3, 2007 – Canadarm2 played a big role in helping astronauts fix a torn solar array.  The arm’s reach was extended by the Orbiter Boom Sensor System, and here, allowing astronaut Scott Parazynski analyses the solar panel while anchored to the boom. Credit: NASA
November 3, 2007 – Canadarm2 played a big role in helping astronauts fix a torn solar array. The arm’s reach was extended by the Orbiter Boom Sensor System, and here, allowing astronaut Scott Parazynski analyses the solar panel while anchored to the boom. Credit: NASA

Spacewalking is inherently a dangerous business. Many people remember a daring station-era spacewalk in 2007, when Scott Parazynski dangled on the end of a Canadarm2 extension to stitch together a torn — and live — solar array. For this spacewalk, a lot of procedures were put together on the fly.

NASA also has a computer program that can roughly simulate how the astronauts can get into various areas of the station, and this was extensively used before Parazynski’s spacewalk, Kimbrough said.

Kimbrough’s crew had a more messy problem as they worked to repair the broken solar array rotary joint (that controlled one of the station’s solar panel arrays) and do other station work. The grease guns the crew used in that mission periodically squirted way too much grease and covered everything. The work area, the spacesuits, the tools.

“It had to do with the thermal properties,” Kimbrough said. “It would go in between pretty hard, to not being so hard. So sometimes, the grease guns that were designed at the time leaked … they have been redesigned, a few modifications, and they’ve worked well since then.”

Kimbrough himself ran into a minor, but still surprising situation when at the end of a lengthy tether. It turned out that tether had a bit of zing to it. “I was working way out on the end of the truss, and it was nighttime and I felt somebody pulling me back and almost spinning me around. The force of it surprised me the most.”

Other astronauts had warned him about that ahead of time, Kimbrough said, but he didn’t realize how vehement the pull could be. “I was a believer after that,” he joked.

Antares Maiden Soar Pierces Virginia Sky and delivers NASA SmartPhone Pioneer Nanosats to Orbit

Antares maiden blastoff on April 21, 2013 from NASA Wallops Flight Facility. Credit: Mark Usciak/AmericaSpace

The privately developed Antares rocket built by Orbital Sciences Corp. successfully blasted off on its maiden test flight from the shores of Virginia on April 21 at 5 p.m. EDT from Mid-Atlantic Regional Spaceport (MARS) Pad-0A at NASA Wallops – thereby inaugurating the new commercial space race and delivered a pioneering trio of low cost NASA Smartphone nanosatellites dubbed PhoneSat to orbit.

The 13 story Antares rocket pierced the chilly but cloudless clear blue Virginia skies as “the biggest, loudest and brightest rocket ever to launch from NASA’s Wallops Flight Facility,” said former station astronaut and now Orbital Sciences manager Frank Culbertson.

Antares picture perfect liftoff marked the first step in a public/private collaboration between NASA and Orbital Sciences to restart cargo delivery services to the International Space Station (ISS) that were lost following the forced retirement of NASA’s space shuttle orbiters in 2011.

“Today’s successful test marks another significant milestone in NASA’s plan to rely on American companies to launch supplies and astronauts to the International Space Station, bringing this important work back to the United States where it belongs,” said NASA Administrator Charles Bolden.

Antares accelerates to orbit on April 21, 2013 from NASA Wallops Flight Facility. Credit: Mark Usciak/AmericaSpace
Antares accelerates to orbit on April 21, 2013 from NASA Wallops Flight Facility. Credit: Mark Usciak/AmericaSpace

The test flight was dubbed the A-One Test Launch Mission and also signified the first launch from Americas newest space port at Pad-0A.

The primary goal of this test flight – dubbed the A-One mission – was to test the fully integrated Antares rocket and boost a simulated version of the Cygnus cargo carrier – known as a mass simulator – into a target orbit of 250 x 300 kilometers and inclined 51.6 degrees.

Antares also lofted the trio of off-the-shelf-smartphone “PhoneSats” to orbit. The three picture taking satellites are named Alexander, Graham and Bell and could be the lowest-cost satellites ever flown in space.

“The Phonesats cost about $3500 each,” said Andrew Petro, NASA Small Satellite Program executive, to Universe Today. “They are deployed after separation.”

Andrew Petro, NASA Small Satellite Program executive, holds NASA Smartphone Phonesat replica launched on Antares test flight on April 21, 2013. Credit: Ken Kremer (kenkremer.com)
Andrew Petro, NASA Small Satellite Program executive, holds NASA Smartphone Phonesat replica launched on Antares test flight on April 21, 2013. Credit: Ken Kremer (kenkremer.com)

The goal of NASA’s PhoneSat mission is to determine whether a consumer-grade smartphone can be used as the main flight avionics of a capable satellite but at a fraction of the cost.

NASA reports that all three lithium battery powered nanosats are functioning and transmitting data to multiple ground stations.

Two of the cubesats are PhoneSat version 1.0 while the other is the more advanced PhoneSat version 2.0. They were developed by engineers at NASA’s Ames Research Center in Calif.

Each square shaped smartphone measures about 4 inches (10 cm) per side, weighs about 4 pounds and is the size of a coffee mug. The smartphone serves as the cubesats onboard computer – see my photos.

NASA Smartphone Phonesat replica. Credit: Ken Kremer (kenkremer.com)
NASA Smartphone Phonesat replica. Credit: Ken Kremer (kenkremer.com)

The cameras will be used for Earth photography. Imaging data will be transmitted in chunks and then stitched together later.

The third time was the charm for Antares following a pair of launch scrubs due to a technical glitch in the final minutes of the initial countdown attempt on Wednesday, April 17 and unacceptable winds on Saturday, April 20.

The rocket flew on a southeasterly trajectory and was visible for about 4 minutes.

This test flight was inserted into the manifest to reduce risk and build confidence for the follow on missions which will fly the fully outfitted Cygnus resupply spacecraft that will dock at the ISS, starting as early as this summer.

The two stage Antares is a medium class rocket similar to the Delta II and SpaceX Falcon 9.

The dummy Cygnus payload was outfitted with instrumentation to collect aerodynamic data until separation from the 2nd stage. That marked the successful conclusion of the A-One mission and the end of all data transmissions.

It will fly in earth orbit for about two weeks or so until atmospheric friction causes the orbit to decay and a fiery reentry.

Frank Culbertson post launch media interview.  Credit: Brent Houston
Frank Culbertson post launch media interview. Credit: Brent Houston

The Antares first stage is powered by dual liquid fueled AJ26 first stage rocket engines that generate a combined total thrust of some 750,000 lbs – original built in the Soviet Union as NK-33 model engines.

The upper stage features an ATK Castor 30 solid rocket motor with thrust vectoring. Antares can loft payloads weighing over 5000 kg to LEO. The 2nd stage will be upgraded starting with the 4th flight.

Antares rocket erect at the Eastern shore of Virginia slated for maiden liftoff on April 17.  Only a few hundred feet of beach sand and a miniscule sea wall separate the Wallops Island pad from the Atlantic Ocean waves and Mother Nature.  Credit: Ken Kremer (kenkremer.com)
Antares rocket erect at the Eastern shore of Virginia slated for maiden liftoff on April 17. Only a few hundred feet of beach sand and a miniscule sea wall separate the Wallops Island pad from the Atlantic Ocean waves and Mother Nature. Credit: Ken Kremer (kenkremer.com)

The Antares/Cygnus system was developed by Orbital Sciences Corp under NASA’s Commercial Orbital Transportation Services (COTS) program to replace the ISS cargo resupply capability previously tasked to NASA’s now retired Space Shuttle fleet.

Orbital’s Antares/Cygnus system is similar in scope to the SpaceX Falcon 9/Dragon system. Both firms won lucrative NASA contracts to deliver approximately 20,000 kilograms each of supplies and science equipment to the ISS.

The goal of NASA’s COTS initiative is to achieve safe, reliable and cost-effective transportation to and from the ISS and low-Earth orbit (LEO).
Orbital will launch at least eight Antares/Cygnus resupply missions to the ISS at a cost of $1.9 Billion

Up Close with Antares beautifully decaled nose NASA Wallops Pad 0-A. Credit: Ken Kremer (kenkremer.com)
Up Close with Antares beautifully decaled nose NASA Wallops Pad 0-A. Credit: Ken Kremer (kenkremer.com)

Ken Kremer
…………….

Learn more about Antares, Orion, SpaceX, Curiosity and NASA robotic and human spaceflight missions at Ken’s upcoming lecture presentations:

April 28: “Curiosity and the Search for Life on Mars – (in 3-D)”. Plus the Space Shuttle, SpaceX, Antares, Orion and more. Washington Crossing State Park, Titusville, NJ, 130 PM

Antares accelerates to orbit on April 21, 2013 from NASA Wallops Flight Facility. Credit: Mark Usciak/AmericaSpace
Antares accelerates to orbit on April 21, 2013 from NASA Wallops Flight Facility. Credit: Mark Usciak/AmericaSpace
Antares at MARS Launch Pad 0A at NASA Wallops Flight Facility, Virginia . Credit: Ken Kremer (kenkremer.com)
Antares at MARS Launch Pad 0A at NASA Wallops Flight Facility, Virginia . Credit: Ken Kremer (kenkremer.com)

Antares Launch Ignites Commercial Space Competition Race

Antares rocket erect at the Eastern shore of Virginia slated for maiden liftoff on April 17. Only a few hundred feet of beach sand and a miniscule sea wall separate the Wallops Island pad from the Atlantic Ocean waves and Mother Nature. Credit: Ken Kremer (kenkremer.com)

The commercial space competition race is about to begin, and with a big bang at a most unexpected locale; Virginia’s Eastern shore.

The new and privately developed Antares rocket will ignite a new space race in the commercial arena – if all goes well – when the engines fire for Antares maiden soar to space slated for Wednesday, April 17.

“This is the biggest, loudest and brightest rocket ever to launch from NASA’s Wallops Flight Facility,” said former station astronaut and now Orbital Sciences manager Frank Culbertson, at a media briefing held today (April 16), 1 day prior to liftoff.

The April 17 launch is a test flight of the Antares rocket, built by Orbital Sciences Corp and is due to liftoff at 5 p.m. EDT from Mid-Atlantic Regional Spaceport (MARS) Pad-0A at NASA Wallops.

The weather forecast shows a 45% chance of favorable weather.

The mission is dubbed the A-One Test Launch Mission.

The launch will be visible along portions of the US East Coast from South Carolina to Maine, depending on viewing conditions.

Antares is the most powerful rocket ever to ascend near major American East Coast population centers, unlike anything before – and critical to keeping the ISS fully functioning.

For the past year, SpaceX Corp founded by CEO Elon Musk has monopolized all the commercial space headlines – as the first and only private company to launch a spacecraft that successfully docked at the International Space Station (ISS).

1st fully integrated Antares rocket stands firmly erect at seaside Launch Pad 0-A at NASA’s Wallops Flight Facility on 16 April 2013.  Technicians were working at the pad during my photoshoot today. Maiden Antares test launch is scheduled for 17 April 2013. Later operational flights are critical to resupply the ISS. Credit: Ken Kremer (kenkremer.com)
1st fully integrated Antares rocket stands firmly erect at seaside Launch Pad 0-A at NASA’s Wallops Flight Facility on 16 April 2013. Maiden Antares test launch is scheduled for 17 April 2013. Later operational flights are critical to resupply the ISS. Credit: Ken Kremer (kenkremer.com)

Indeed SpaceX just concluded its 3rd flight to the ISS lofting thousands of pounds (kg) of critically needed supplies to the ISS to keep it functioning – and numerous science experiments to keep the 6 person crew of astronauts busy conducting over 200 active science investigations and fulfill the stations purpose.

Orbital Sciences aims to match and perhaps even exceed the SpaceX Falcon 9 /Dragon architecture with its own ambitious space station resupply system comprising the medium class Antares rocket and Cygnus cargo resupply vehicle.

“The Cygnus can remain docked to the ISS for 30 to 90 days,” said former station astronaut and now Orbital Sciences manager Frank Culbertson at the briefing.

“Cygnus could be upgraded to stay longer perhaps up to a year in orbit,” Culbertson told Universe Today.

“Cygnus is based on the proven MPLM design. It could possibly be converted to a permanent habitation module for the ISS with added shielding and plumbing, if funding is available and if NASA wants to pursue that possibility,” Culbertson told me.

Cygnus could even be sent beyond low Earth orbit on ambitious new missions.

“This is a big event for this area and our country,” said Culbertson.

During the test flight Antares will boost a simulated Cygnus – known as a mass simulator – into a target orbit of 250 x 300 kilometers and inclined 51.6 degrees.

Antares rocket configuration - privately developed by Orbital Sciences Corp.
Antares rocket configuration – privately developed by Orbital Sciences Corp.

The Antares first stage is powered by dual liquid fueled AJ26 first stage rocket engines that generate a combined total thrust of some 750,000 lbs. The upper stage features a Castor 30 solid rocket motor with thrust vectoring. Antares can loft payloads weighing over 5000 kg to LEO.

Antares stands 131 feet tall.

Dozens of technicians were working at the pad during my photoshoot today.

The Antares/Cygnus system was developed by Orbital Sciences Corp under NASA’s Commercial Orbital Transportation Services (COTS) program to replace the ISS cargo resupply capability previously tasked to NASA’s now retired Space Shuttle fleet.

Over the next 3 to 4 years, eight Cygnus carriers will loft 20,000 kg of supplies, food, water, clothing , replacement parts and science gear to the ISS under a NASA contract valued at $1.9 Billion.

“This represents a new way of doing business for NASA,” said NASA’s commercial crew program manager Alan Lindenmoyer.

NASA Wallops Director Jay Wrobel has granted the formal Authority to Proceed for Orbital Science Corporation’s test launch of its Antares rocket.

Following today’s Flight Readiness review, Orbital managers gave a “GO” to proceed toward launch.

NASA TV launch coverage begins at 4 p.m. EDT on April 17.

Watch for my continuing on-site reports through liftoff of the Antares A-One Test flight.

Ken Kremer

…………….

Learn more about Orion, Antares, SpaceX, Curiosity and NASA robotic and human spaceflight missions at Ken’s upcoming lecture presentations:

April 20/21 : “Curiosity and the Search for Life on Mars – (in 3-D)”. Plus “The Space Shuttle Finale and the Future of NASA – Orion, SpaceX, Antares and more!” NEAF Astronomy Forum, Rockland Community College, Suffern, NY. 3-4 PM Sat & Sunday. Display table all day.

April 28: “Curiosity and the Search for Life on Mars – (in 3-D)”. Plus the Space Shuttle, SpaceX, Antares, Orion and more. Washington Crossing State Park, Titusville, NJ, 130 PM

Orion Capsule Accelerating to 2014 Launch and Eventual Asteroid Exploration

A crane lifts the Orion EFT-1 crew module from its birdcage processing stand for transfer it to a dolly for continued assembly inside the Operations and Checkout Building high bay at NASA’s Kennedy Space Center in Florida as workers monitor progress. Orion’s first unpiloted test flight is scheduled to launch in 2014. Credit: NASA/Frankie Martin

NASA is picking up the construction pace on the inaugural space-bound Orion crew capsule at the Kennedy Space Center (KSC) in Florida – and accelerating towards blastoff on the unmanned Exploration Flight Test-1 mission (EFT-1) slated for September 2014 atop a mammoth Delta 4 Heavy Booster which will one day lead to deep space human forays to Asteroids and Mars.

Orion was at the center of an impressive and loud beehive of action packed assembly activities by technicians during my recent exclusive tour of the spacecraft to inspect ongoing progress inside the renovated Orion manufacturing assembly facility in the Operations and Checkout Building (O & C) at KSC.

“We plan to power up Orion for the first time this summer,” said Scott Wilson in an exclusive interview with Universe Today beside the Orion vehicle. Wilson is Orion’s Production Operations manager for NASA at KSC.

The Orion EFT-1 flight is a critical first step towards achieving NASA’s new goal of capturing and retrieving a Near Earth Asteroid for eventual visit by astronauts flying aboard an Orion vehicle by 2021 – if NASA’s budget request is approved.

An artist concept shows Orion as it will appear in space for the Exploration Flight Test-1 attached to a Delta IV second stage.   Credit: NASA
An artist concept shows Orion as it will appear in space for the Exploration Flight Test-1 attached to a Delta IV second stage. Credit: NASA

KSC will have a leading role in NASA’s asteroid retrieval project that could occur some four years earlier than President Obama’s targeted goal of 2025 for a human journey to an asteroid.

Capturing an asteroid and dispatching astronauts aboard Orion to collect precious rock samples will aid our scientific understanding of the formation of the Solar System as well as bolster Planetary Defense strategies – the importance of which is gathering steam following the unforeseen Russian meteor strike in February which injured over 1200 people and damaged over 3000 buildings.

Dozens of highly skilled workers were busily cutting metal, drilling holes, bolting screws and attaching a wide range of mechanical and electrical components and bracketry to the Orion pressure vessel’s primary structure as Universe Today conducted a walk around of the EFT-1 capsule, Service Module and assorted assembly gear inside the O&C.

Orion EFT-1 crew cabin and full scale mural showing Orion Crew Module atop Service Module inside the O & C Building at the Kennedy Space Center, Florida. Credit: Ken Kremer/kenkremer.com
Orion EFT-1 crew cabin and full scale mural showing Orion Crew Module atop Service Module inside the O & C Building at the Kennedy Space Center, Florida. Credit: Ken Kremer/kenkremer.com

Lockheed Martin is the primary contractor for Orion. A growing number of employees hired by Lockheed and United Space Alliance (USA) are “working 2 shifts per day 7 days a week to complete the assembly work by year’s end,” said Jules Schneider, Orion Project manager for Lockheed Martin at KSC, during an exclusive interview with Universe Today.

I watched as the workers were boring hundreds of precision holes and carefully tightening the high strength steel bolts to attach the top to bottom ring segments made of titanium to the main load paths on the pressure vessel.

“We are installing lots of wiring to support ground test instrumentation for the strain gauges as well as microphones and accelerometers.”

“The simulated back shell panels are being installed now as guides,” said Wilson. “The real back shell panels and heat shield will be installed onto the structure later this year.”

“The heat shield is the biggest one ever built, 5 meters in diameter. Its bigger than Apollo and Mars Science Lab. It varies in thickness from about 1 to 3 inches depending on the expected heating.”

“We are making good progress on the Orion Service module too. The outer panels will be installed soon,” Wilson explained.

The olive green colored crew module was clamped inside the birdcage-like Structural Assembly Jig during my visit. The Jig has multiple degrees of freedom to maneuver the capsule and more easily enable the detailed assembly work.

“The technicians are installing strain gauges and secondary structure components to get it ready for the upcoming structural loads test,” said Schneider.

“After that we need to finish installing all the remaining parts of the primary structure and a significant portion of the secondary structure.”

For the next stage of processing, the EFT-1 crew module has been lifted out of the birdcage Jig and moved onto an adjacent dedicated work station for loads testing at the Operations and Checkout building.

As reported in my earlier article the Orion pressure vessel sustained three ‘hairline” cracks in the lower half of the aft bulkhead during proof pressure testing of the vessel and welds at the O & C.

I was observing as the technicians were carefully milling out the miniscule bulkhead fractures.

Workers have now installed custom built replacement brackets and reinforcing doublers on the aft bulkhead.

“We will do the protocol loads test with pressure using about 9 different load cases the vehicle will see during the EFT-1 flight. Chute deployment and jettison motor deployment is a driving load case,” said Schneider.

“We will also squeeze the capsule,” said Wilson.

“That structural loads testing of the integrated structure will take about 6 to 8 weeks. There are thousands of gauges on the vehicle to collect data,” Schneider elaborated.

“The test data will be compared to the analytical modeling to see where we are at and how well it matched the predictions – it’s like acceptance testing.”

“After we finish the structural loads tests we can than start the assembly and integration of all the other subsystems.”

“When we are done with the ground testing program then we remove all the ground test instrumentation and start installing all the actual flight systems including harnesses and instrumentation, the plumbing and everything else,” Schneider explained.

Orion hardware built by contractors and subcontractors from virtually every state all across the U.S is being delivered to KSC for installation onto EFT-1. Orion is a nationwide human spaceflight project.

Concept of Spacecraft with Asteroid Capture Mechanism Deployed. Credit: NASA.
Concept of Spacecraft with Asteroid Capture Mechanism Deployed. Credit: NASA.

During the unmanned Orion EFT-1 mission, the capsule will fly on a two orbit test flight to an altitude of 3,600 miles above Earth’s surface, farther than any human spacecraft has gone in 40 years.

It will then fire braking rockets to plunge back to Earth, re-enter the atmosphere at about 20,000 MPH and test numerous spacecrafts systems, the heat shield and all three parachutes for an ocean splashdown.

Meanwhile other Orion EFT-1 components such as the emergency Launch Abort System (LAS) and Service Module are coming together – read my Orion follow-up reports.

Humans have not ventured beyond low Earth orbit since the Apollo Moon landings ended in 1972. Orion will change that.

Ken Kremer

…………….

Learn more about Orion, Antares, SpaceX, Curiosity and NASA robotic and human spaceflight missions at Ken’s upcoming lecture presentations:

April 20/21 : “Curiosity and the Search for Life on Mars – (in 3-D)”. Plus “The Space Shuttle Finale and the Future of NASA – Orion, SpaceX, Antares and more!” NEAF Astronomy Forum, Rockland Community College, Suffern, NY. 3-4 PM Sat & Sunday. Display table all day.

April 28: “Curiosity and the Search for Life on Mars – (in 3-D)”. Plus the Space Shuttle, SpaceX, Antares, Orion and more. Washington Crossing State Park, Titusville, NJ, 130 PM

Orion EFT-1 crew cabin construction ongoing at the Kennedy Space Center which is due to blastoff in September 2014 atop a Delta 4 Heavy rocket. Credit: Ken Kremer
Orion EFT-1 crew cabin construction ongoing at the Kennedy Space Center which is due to blastoff in September 2014 atop a Delta 4 Heavy rocket. Credit: Ken Kremer

Soviet Lander Spotted by Mars Orbiter

The bright spot in the center of this HiRISE image may be the 11-meter-wide parachute from Mars 3's descent stage (NASA/JPL-Caltech/Univ. of Arizona)

On May 28, 1971, the Soviet Union launched the Mars 3 mission which, like its previously-launched and ill-fated sibling Mars 2, consisted of an orbiter and lander destined for the Red Planet. Just over six months later on December 2, 1971, Mars 3 arrived at Mars — five days after Mars 2 crashed. The Mars 3 descent module separated from the orbiter and several hours later entered the Martian atmosphere, descending to the surface via a series of parachutes and retrorockets. (Sound familiar?) Once safely on the surface, the Mars 3 lander opened its four petal-shaped covers to release the 4.5-kg PROP-M rover contained inside… and after 20 seconds of transmission, fell silent. Due to unknown causes, the Mars 3 lander was never heard from or seen again.

Until now.

These images show what might be hardware from the Soviet Union's 1971 Mars 3 lander ( NASA/JPL-Caltech/Univ. of Arizona)
These images show what might be hardware from the Soviet Union’s 1971 Mars 3 lander (NASA/JPL-Caltech/Univ. of Arizona)

The set of images above shows what might be hardware from the 1971 Soviet Mars 3 lander, seen in a pair of images from the High Resolution Imaging Science Experiment (HiRISE) camera on NASA’s Mars Reconnaissance Orbiter.

While following news about Mars and NASA’s Curiosity rover, Russian citizen enthusiasts found four features in a five-year-old image from Mars Reconnaissance Orbiter that resemble four pieces of hardware from the Mars 3 mission: the parachute, heat shield, terminal retrorocket and lander. A follow-up image by the orbiter from last month shows the same features.

“Together, this set of features and their layout on the ground provide a remarkable match to what is expected from the Mars 3 landing, but alternative explanations for the features cannot be ruled out.”

– Alfred McEwen, HiRISE Principal Investigator

The Mars 3 lander (NSSDC)
The Mars 3 lander (NSSDC)

Vitali Egorov from St. Petersburg, Russia, heads the largest Russian Internet community about Curiosity. His subscribers did the preliminary search for Mars 3 via crowdsourcing. Egorov modeled what Mars 3 hardware pieces should look like in a HiRISE image, and the group carefully searched the many small features in this large image, finding what appear to be viable candidates in the southern part of the scene. Each candidate has a size and shape consistent with the expected hardware, and they are arranged on the surface as expected from the entry, descent and landing sequence.

“I wanted to attract people’s attention to the fact that Mars exploration today is available to practically anyone,” Egorov said. “At the same time we were able to connect with the history of our country, which we were reminded of after many years through the images from the Mars Reconnaissance Orbiter.”

The predicted Mars 3 landing site was at latitude 45 degrees south, longitude 202 degrees east, in Ptolemaeus Crater. HiRISE acquired a large image at this location in November 2007, and promising candidates for the hardware from Mars 3 were found on Dec. 31, 2012.

Candidate features of the Mars 3 retrorockets (top) and lander (bottom)
Candidate features of the Mars 3 retrorockets (top) and lander (bottom)

The candidate parachute is the most distinctive feature in the images (seen above at top.) It is an especially bright spot for this region, about 8.2 yards (7.5 meters) in diameter.

The parachute would have a diameter of 12 yards (11 meters) if fully spread out over the surface, so this is consistent.

“Together, this set of features and their layout on the ground provide a remarkable match to what is expected from the Mars 3 landing, but alternative explanations for the features cannot be ruled out,” said HiRISE Principal Investigator Alfred McEwen of the University of Arizona, Tucson. “Further analysis of the data and future images to better understand the three-dimensional shapes may help to confirm this interpretation.”

Source: NASA/JPL

 

Golden Spike Still Needs Your Help to Get to the Moon

Concept of a Golden Spike Co. lunar lander


Last December the Golden Spike Company announced its plans to enable private-sector lunar exploration missions which would be feasible, profitable, and possible — even without government funding. Comprised of veteran space program executives, managers, and engineers, Golden Spike intends to stand on the shoulders of current space technology to develop lunar transportation systems that can be used by agencies and private interests worldwide to get humans back to the Moon… but they still need your help getting the word out.

“We’re running an Indiegogo campaign as an experiment in public outreach and interest in human lunar expeditions,” Golden Spike CEO and planetary scientist Alan Stern explained to Universe Today in an email.

Recently Golden Spike started a crowdfunding campaign on Indiegogo with the goal of raising $240,000 for international outreach (that’s a dollar for every mile to the Moon!) but, with only 16 10 days left in the campaign, only $9,400 $12,134 has been contributed.* While dollar-for-mile that’s still farther than any humans have traveled into space since Apollo, it’s unfortunately quite short of their goal.

CEO and famed planetary scientist Alan Stern blames himself.

“Simply put, we didn’t put the right people and resources on this Indiegogo campaign,” Stern wrote in an announcement on the Indiegogo site on April 9.

But despite the small amount of time remaining, he’s not giving up.

“We’re going to take advantage of the press of time left — just 16 days — to reach out to the broader public about people they can be a part of a historic new era of human lunar exploration,” Stern writes.

“To do that, you’ll be seeing Golden Spike in the press quite a bit more the next two weeks.”

And he’s asking for your continued help to not just contribute, but also to get the word out.

“Speak to friends and colleagues. Message on sites like Twitter and Facebook, Google+, and LinkedIn. Send emails. Heck, put up signs and hand out flyers! We’re in the final phases of this campaign, ask people to join in. Let them know why you joined. Tell them their participation will make a huge difference… If we do this right, we can succeed.”

While contributions to the Golden Spike campaign won’t be used to launch rockets or build Moon bases, they will be used to reach out to potential international partners and show them that people are indeed interested in getting people back to the Moon… proven by the fact that they’ll even put some of their own money into the venture.

Small donations, large donations… each contribution no matter the size shows that people will invest in a future of lunar exploration. Put some “skin in the game,” if you will.

Click here to contribute to the Golden Spike campaign. And even if you can’t contribute financially, help get the word out. Share this article, tell people about the campaign, let them know that our future on the Moon doesn’t have to rely on fickle government funding or be subject to catastrophic budget cuts.

We got there before, we can get there again. The Moon awaits.

“Make the point that 40-plus years of waiting for governments to do this for us showed that the people who want humans to explore the Moon have to take personal action if we want it.”

– Alan Stern, planetary scientist and Golden Spike Company CEO

Read more about the Golden Spike Company mission here.

PS: Be sure to email [email protected] when you donate to the campaign and let them know your name, city, and state, and who referred you to donate (in this case, Universe Today.) They’re giving prizes for the top US state, top country, and top referrals!

(*Article updated on April 15.)