Almost Done!

Almost Done!

Hey all! I have more in the way of novel-writing news. For starters, The Cronian Incident is now just a few chapters short of completion. After over a year of writing, editing, and back and forth with my prospective-publisher, the novel is just about finished. All told, it is now 31 chapters long and just over 85,000 words in length. I anticipate it will be about 100,000 by the time its finished, though I have been known to exceed estimates in the past!

And as per my agreement with my publisher, I have begun working on its sequel. Apparently, publishers like to know the people they sign have more books in them. And they prefer to release sequels within a few months of the first book, to ensure that any buzz they generate with the first release can be capitalized on. Lucky for me I had plans for a second and third novel before my publisher and I started talking, not to mention some spin offs.

So here’s the commercial description for the proposed sequel (i.e. what you’d read on the back of the dust jacket), as well as a rundown on some other ideas I’m working on:

The Jovian Manifesto:

The Solar System is in the midst of a crisis. In the Jovian and Cronian systems, the populations are up in arms, thanks to an inflammatory document that has appeared on the local nets. Known as “The Jovian Manifesto”, this document details how a powerful faction in the Inner Solar System conspired to seize control over the moons of Callisto and Titan and forcibly alter them. Behind the leak is a mysterious personality known only as Clio, who is threatening to release all the details unless the guilty parties come forward.

Back on Venus, a former analyst named Valéria Gallego is called before the Solar Assembly to investigate the Manifesto and its author. In this, she is assisted by Kadera, an infiltration specialist who can get in and out of any location in the Solar System. If they can determine its authenticity, perhaps they can prevent open conflict. But if not, the Inner Worlds may have no choice but to send armed forces to the Outer Worlds to ensure peace and stability.

Meanwhile, a string of violent acts has threatened to bring things ever closer to the brink. For Gallego and all those who are seeking the truth, time is running out…

Luna Invictus:

Now this is a book that doesn’t come with a commercial description, just a general one. But it is set in the same universe as The Cronian Incident and The Jovian Manifesto. Here’s what I am thinking. Basically, I wanted to do a story set on the Moon, ca. the 22nd century, when the Moon is now effectively colonized,,,

Between the European Space Agency (ESA), NASA, the Russians (Roscosmos), India (the ISRO), and China (CNSA), the lunar surface now has multiple permanent settlements. Whereas the ESA and NASA have established themselves at the southern polar region – in a domed settlement in the Shackleton Crater – and the Chinese have established a colony in the northern polar region, the Russians and Indians have claimed the mid-latitudes, where stable lava tubes have allowed for the creation of underground cities.

And on the “Dark Side” of the Moon – that is to say, the side looking away from Earth – are a series of installations known as the Unrestricted Zones. It is here that all kinds of weird research, development and experiments take place. Nanotechnology, biotechnology, quantum computing, and man-machine interface – anything goes in these places! Ever since the explosion in learning that took place during the previous century, places all over Earth and the Moon have become dedicated to pursuing technological progress and integration without restriction.

And it is here that a young man named Frankling Houte is seeking to go. Years ago, his sister – named Constant Houte – chose to undergo a procedure where her organic brain would be augmented by merging it with quantum components. But after all contact ceased, he is determined to find her and return her home. But whereas Franklin fancies himself a brave rescuer, it is his sister who will come to save him.


This story will take place entirely in a generation ship that is making its way towards the nearby star system. Within the confines of this self-contained world, thousands of humans have committed to waiting and working for generations as their massive ship – the Traverse Velocity, which in astronomical terms refers to the speed at which a star moves perpendicular to our line of sight – transports them to an Earth-like world outside of our Solar System.

The location of that world is up for grabs at the moment, mainly because new discoveries are being made all the time. Did you hear about the latest exoplanet discovery, located about 39 light years away and already said to be the “best place to look for signs of life beyond the Solar System”? Between that and new findings that claims how previous discoveries are not likely to be habitable after all, I’ve decided to leave the destination blank until I actually start writing it!

But of course, no story would be complete without some intrigue and big ol’ inciting event! And the way I see it, things begin to go awry when the Captain and crew get notification that one of the passengers has awakened from cryosleep prematurely and disappeared into the ship. Shortly thereafter, one of the crew is found dead in what appears to be a sabotage attempt gone wrong. A ship-wide search begins to find the culprit while the atmosphere quickly devolves into one of paranoia and suspicion.

To make matter worse, the crew becomes aware of another ship that is threatening to catch up and overtake them. It seems that another faction from the Solar System, which was also intent on settling (insert exoplanet here) is now trying to get their ahead of them. What began as a journey to a new world, characterized by hopes and dreams, has become a race to lay claim to a planet. And it appears that the planet may have inhabitants of its own, ones which are not interested in welcoming the intruders.

ESA’s Rosetta Mission Lands on Comet!

Rosetta_and_Philae_at_comet_node_full_imageOne hundred years ago, Europeans were engaged in the most brutal, inhuman struggle in history – one that saw millions of people killed and entire countrysides devastated. Today, Europeans stood together, hand in hand, to witness the momentous occasion of the Philae Lander setting down on the 67P/Churyumov-Gerasimenko comet. Not only was history made in this one act, it put a whole lot of history into perspective.

And my good friends over at Universe Today have been covering this news in a very as-it-happens fashion. So have countless other news sources all over the planet, and for good reason. This is the first time human beings have ever landed a robotic rover on a comet’s surface. Due to the high-speed, transitory nature of these celestial bodies, we’ve been forced to sit back and watch up until now.

Mars_comet_flybyIn fact, comets have been around for billions of years and date back to a time when the Solar System was still in its early stages of formation. For human beings, the sight of a comet in the night sky was often seen as a bad omen. For example, the presence of Halley’s Comet in the Inner Solar System is still believed by many to be a bringer of doom. During it’s last appearance in 1986, it became the first comet be observed in detail by spacecraft.

But with the Rosetta space mission, we finally have the opportunity to study the surface of a comet in detail, and up close! Who knows what mysteries lie beneath that icy surface. Most likely, there’s a whole lot of dust that is billions of years old and can tell us things about what our Solar System looked like way back when. But you never know…

Nice to know that humanity has made some progress in the past century.

News from Aerospace: XS-1 Experimental Spaceplane

northrop-grumman-xs-1-spaceplaneThe race to produce a new era or reusable and cost-effective spacecraft has been turning out some rather creative and interesting designs. DARPA’s XS-1 Spaceplane is certainly no exception. Developed by Northrop Grumman, in partnership with Scaled Composites and Virgin Galactic, this vehicle is a major step towards producing launch systems that will dramatically reduce the costs of getting into orbit.

Key to DARPA’s vision is to develop a space-delivery system for the US military that will restore the ability of the US to deploy military satellites ingeniously. In a rather ambitious twist, they want a vehicle that can be launched 10 times over a 10-day period, fly in a suborbital trajectory at speeds in excess of Mach 10, release a satellite launch vehicle while in flight, and reduce the cost of putting a payload into orbit to US$5 million (a tenth of the current cost).

XS-1_1Under DARPA contracts, Boeing, Masten Space Systems, and Northrop Grumman are working on their own versions of the spaceplane. The Northrop plan is to employ a reusable spaceplane booster that, when coupled with an expendable upper stage, can send a 1360 kgs (3,000 pounds) spacecraft into low Earth orbit. By comping reusable boosters with aircraft-like operations on landing, a more cost-effective and resilient spacecraft results.

In flight, the Northrop version of the XS-1 will take advantage of the company’s experience in unmanned aircraft to use a highly autonomous flight system and will release an expendable upper stage, which takes the final payload into orbit. While this is happening, the XS-1 will fly back to base and land on a standard runway like a conventional aircraft, refuel, and reload for the next deployment.

Spaceshiptwo-580x256Northrop is working under a $3.9 million phase one contract with DARPA to produce a design and flight demonstration plan that will allow the XS-1 to not only act as a space launcher, but as a testbed for next-generation hypersonic aircraft. Meanwhile Scaled Composites, based in Mojave, will be in charge of fabrication and assembly while Virgin Galactic will handle commercial spaceplane operations and transition.

Doug Young, the vice president of missile defense and advanced missions at Northrop Grumman Aerospace Systems, had this to say about the collaboration:

Our team is uniquely qualified to meet DARPA’s XS-1 operational system goals, having built and transitioned many developmental systems to operational use, including our current work on the world’s only commercial spaceline, Virgin Galactic’s SpaceShipTwo. We plan to bundle proven technologies into our concept that we developed during related projects for DARPA, NASA and the U.S. Air Force Research Laboratory, giving the government maximum return on those investments.

space_elevator2Regardless of which contractor’s design bears fruit, the future of space exploration is clear. In addition to focusing on cutting costs and reusability, it will depend heavily upon public and private sector collaboration. As private space companies grab a larger share of the space tourism and shipping market, they will be called upon to help pick up the slack, and lend their expertise to more ambitious projects.

Examples abound, from putting satellites, supplies and astronauts into orbit, to landing settlers on Mars itself. And who knows? In the foreseeable future, NASA, Russia, China, the ESA and Japan may also be working hand-in-hand with transport and energy companies to make space-based solar power and a space elevator a reality!


News from Space: Rosetta Maps Comet Surface

Rosetta_and_Philae_at_cometLast month, the European Space Agency Rosetta’s space probe arrived at the comet known as 67P/Churyumov–Gerasimenko, thus becoming the first spacecraft to ever rendezvous with a comet. As it continues on its way to the Inner Solar System, Rosetta’s sensing instruments have been studying the surface in detail in advance of the attempted landing of it’s Philae probe.

Because of this, Rosetta has been able to render a map of the various areas on the surface of the comet, showing that it is composed of several different regions created by a range of forces acting upon the object. Images of the comet’s surface were captured by OSIRIS, the scientific imaging system aboard the Rosetta spacecraft, and scientists analyzing them have divided the comet into several distinct regions, each characterized by different classes of features.

rosettamap-1All told, areas containing cliffs, trenches, impact craters, rocks, boulders and parallel grooves have been identified and mapped by the probe. Some of the areas that have been mapped appear to be caused by aspects of the activity occurring in and around the nucleus of the comet, such as where particles from below the surface are carried up by escaping gas and vapor and strewn around the surface in the surrounding area.

So detailed are these images that many have been captured at a resolution of one pixel being equal to an area of 194 square centimeters (30 square inches) on the comet surface. Dr. Holger Sierks, OSIRIS’ Principal Investigator from the Max Planck Institute for Solar System Science, puts it into perspective:

Never before have we seen a cometary surface in such detail. It is a historic moment – we have an unprecedented resolution to map a comet… This first map is, of course, only the beginning of our work. At this point, nobody truly understands how the surface variations we are currently witnessing came to be.

Rosetta_and_Philae_at_comet_node_full_imageThe newly-generated comet maps and images captured by the instruments on Rosetta will now provide a range of detail on which to finalize possible landing sites for the Philae probe to be launched to the surface . As such, the Rosetta team will meet in Toulouse, France, on September 13 and 14 to allocate primary and backup landing sites (from a list of sites previously selected) with much greater confidence.

At the same time, Rosetta has revealed quite a bit about the outward appearance of the comet, and it aint pretty! More often than not, comets are described as “dirty snowballs” to describe their peculiar composition of ice and dust. But Rosetta’s Alice instrument, which was installed by NASA, has sent back preliminary scientific data that shows that the comet is more akin to a lump of coal.

Rosetta_Artist_Impression_Far_625x469Alice is one of eleven instruments carried aboard Rosetta and one of three instrument packages supplied by NASA for the unmanned orbiter. Essentially, it’s a miniature UV imaging spectrograph that looks for thermal markers in the far ultraviolet part of the spectrum in order to learn more about the comet’s composition and history. It does this by looking specifically for the markers associated with noble gases, such as helium, neon, argon, and krypton.

The upshot of all this high-tech imaging is the surprising discovery of what 67P/Churyumov-Gerasimenko looks like. According to NASA, the comet is darker than charcoal. And though Alice has detected oxygen and hydrogen in the comet’s coma, the patches of barren ice that NASA scientists had expected aren’t there. Apparently, this is because 67P/Churyumov-Gerasimenko is too far away from the warmth of the sun to turn the ice into water vapor.

rosetta-1Alan Stern, Alice principal investigator at the Southwest Research Institute in Boulder, Colorado, had this to say about the revelation:

We’re a bit surprised at just how unreflective the comet’s surface is and how little evidence of exposed water-ice it shows.

Launched in 2004, Rosetta reached 67P/Churyumov-Gerasimenko by a circuitous route involving three flybys of Earth, one of Mars, and a long detour out beyond Jupiter as it built up enough speed to catch up to the comet. Over the coming months, as the Rosetta spacecraft and comet 67P move further into the solar system and approach the sun, the OSIRIS team and other instruments on the payload will continue to observe the comet’s surface for any changes.

alice-first-findings-3Hence why this mission is of such historic importance. Not only does it involve a spacecraft getting closer to a comet than at time in our history, it also presents a chance to examine what happens to a comet as it approaches our sun. And if indeed it does begin to melt and breakdown, we will get a chance to peer inside, which will be nothing less than a chance to look back in time, to a point when our Solar System was still forming.

Sources: gizmag, (2),,

Buzz Aldrin: Let’s Go to Mars!

Apollo11_Aldrin1This past weekend was the 45th anniversary of the Moon Landing. To mark that occasion, NASA mounted the @ReliveApollo11 twitter campaign, where it recreated every moment of the historic mission by broadcasting updates in “real-time”. In addition to commemorating the greatest moment in space exploration, and one of the greatest moments in history, it also served to draw attention to new efforts that are underway.

Perhaps the greatest of these is one being led by Buzz Aldrin, a living-legend and an ambassador for current and future space missions. For decades now, Aldrin has been acting as a sort of elder statesman lobbying for the exploration of the cosmos. And most recently, he has come out in favor of a mission that is even grander and bolder than the one that saw him set foot on the Moon: putting people on Mars.

mars_spaceXmissionIt’s no secret that NASA has a manned mission planned for 2030. But with space exploration once again garnering the spotlight – thanks in no small part to commercial space companies like SpaceX and Virgin Galactic – Aldrin is pushing for something even more ambitious. Echoing ideas like Mars One, his plan calls for the colonization of Mars by astronauts who would never return to Earth.

To be sure, the spry 84 year-old has been rather busy in the past few years. After going through a very public divorce with his wife 0f 23 years in January of last year, he spent the past few months conducting a publicity blitz on behalf of the 45th anniversary of Apollo 11. In between all that, he has also made several appearances and done interviews in which he stressed the importance of the Martian colonization project.

Mars_OneA few months ago, Aldrin wrote an op-ed piece for Fast Company about innovation and the need for cooperation to make a new generation of space exploration a reality. During a more recent interview, which took place amidst the ongoing crisis in the Ukraine, he once again stressed the importance of cooperation between the United States, Russia, China, and their respective space programs.

As he told Fast Company in the interview:

I think that any historical migration of human beings to establish a permanent presence on another planet requires cooperation from the world together. That can’t be done by America competing with China… Just getting our people back up there is really expensive! We don’t compete but we can do other things close by with robots, which have improved tremendously over the past 45 years (since Apollo 11). You and I haven’t improved all that much, but robots have. We can work together with other nations in design, construction, and making habitats on both the near side and far side of Mars. Then when we eventually have designs, we’ll have the capacity to actually build them.

SLS_launchSimilarly, Aldrin took part in live Google Hangout with’s managing editor Tariq Malik and executive producer Dave Brody. This took place just eight days before the 25th anniversary of the Landing. During the broadcast, he discussed his experiences as an astronaut, the future of lunar exploration, future missions to Mars and beyond, and even took questions via chatwindow on Google+’s webpage.

At this juncture, its not clear how a colonization mission to Mars would be mounted. While Mars One is certainly interested in the concept, they (much like Inspiration Mars) do not have the necessary funding or all the technical know-how to make things a reality just yet. A possible solution to this could be a partnership program between NASA, the ESA, China, Russia, and other space agencies.

terraformingSuch ideas did inform Kim Stanley Robinson’s seminal novel Red Mars, where an international crew flew to the Red Planet and established the first human settlement that begins the terraforming process. But if international cooperation proves too difficult, perhaps a collaboration between commercial space agencies and federal ones could work. I can see it now: the Elon Musk Martian Dome; the Richard Branson Habitat; or the Gates colony…

With that in mind, I think we should all issue a prayer for international peace and cooperation! And in the meantime, be sure to check out the video of the Google Hangout below. And if you’re interested in reading up on Aldrin’s ideas for a mission to Mars, check out his book, Mission to Mars: My Vision for Space Exploration, which is was published by National Geographic and is available at Amazon or through his website.


News From Space: ESA Sets Sights on Space Debris

space_debrisIt’s no secret that the orbital space lanes are clogged with debris. In fact, our upper atmosphere is so clogged with the remains of dead satellites, old rockets, and assorted space garbage, that initiatives are being planned to remedy the situation. The ESA, for example, has the Clean Space Initiative; and the e.DeOrbit mission that aims to send debris-hunting satellites into orbit to clean up the mess.

The aim of this mission is to clean up the important polar orbits between altitudes of 800 to 1,000 km (500 to 625 mil) that face the prospect of becoming unusable due to the increasing buildup of space debris. As part of the plan, the ESA is also investigating the possibility of using space harpoons to capture large items, such as derelict satellites and the upper stages of rockets. is just the latest in a series of possible plans to capture debris. In the past, the ESA has revealed that it was looking at capturing space debris in a net, securing it with clamping mechanisms, or grabbing hold of it using robotic arms. However, the latest possibility calls for using capturing debris with a tethered harpoon, which would pierce the debris with a high-energy impact before reeling it in.

Such an approach would not be practical for smaller debris, but is aimed at reeling in uncontrolled multitonne objects that threaten to fragment when colliding with other objects. These sorts of collisions result in debris clouds that would steadily increase in density due to the Kessler syndrome – a scenario in which the density of orbital debris is high enough that collisions generates more debris, increasing the likelihood of further collisions.

Airbus Defence and Space's preliminary design for a space harpoon system (Image: Airbus De...The ESA says the space harpoon concept has already undergone initial investigations by Airbus Defense and Space in Stevenage – two aerospace developers based in the UK. The preliminary design incorporates a penetrating tip, a crushable cartridge to help embed it in the target satellite structure, and barbs to keep it sticking in so the satellite can then be reeled in.

The initial tests involved shooting a prototype harpoon into a satellite-like material to assess its penetration, the strength of the harpoon and tether as the target is reeled in, and the potential for the target to fragment, which would result in more debris that could threaten the e.DeOrbit satellite. The ESA now plans to follow up these initial tests by building and testing a prototype version of the harpoon and its ejection system.

space_laserThe project will examine the harpoon impact, target piercing and the reeling in of objects using computer models and experiments, ultimately leading up to a full hardware demonstration. The space agency has put out the call for bidders to compete for the project contract, and hopes to be sending a working model into orbit by 2021 to conduct some much-needed housecleaning.

Naturally, there are other proposals being considered for debris-hunting. Between the ESA and NASA, there’s also the EPFL’s CleanSpace One debris hunter, and the Universities Space Research Association anti-collision laser concept. And while these remains still very much in the RandD phase, clearing the space lanes is likely to become a central issue once regular missions are mounted to Mars and the outer Solar System.


News From Space: Rosetta Starts, Orion in the Wings

 Quick Note: This is my 1700th post!
Yaaaaaay, happy dance!

Rosetta_Artist_Impression_Far_625x469Space exploration is a booming industry these days. Between NASA, the ESA, Roscosmos, the CSA, and the federal space agencies of India and China, there’s just no shortage of exciting missions aimed at improving our understanding of our Solar System or the universe at large. In recent months, two such missions have been making the news; one of which (led by the ESA) is now underway, while the other (belonging to NASA) is fast-approaching.

In the first instance, we have the ESA’s Rosetta spacecraft, which is currently on its way to rendezvous with the comet 67P/Churyumov-Gerasimenko at the edge of our Solar System. After awaking from a 957 day hibernation back in January, it has just conducted its first instruments observations. Included in these instruments are three NASA science packages, all of which have started sending science data back to Earth.

Rosetta_and_Philae_at_cometSince leaving Earth in March 2004, the Rosetta spacecraft has traveled more than 6 billion km (3.7 billion miles) in an attempt to be the first spacecraft to successfully rendezvous with a comet. It is presently nearing the main asteroid belt between Jupiter and Mars – some 500,000 km (300,000 miles) from its destination. And until August, it will executing a series of 10 orbit correction maneuvers to line it self up to meet with 67P, which will take place on August 6th.

Rosetta will then continue to follow the comet around the Sun as it moves back out toward the orbit of Jupiter. By November of 2014, Rosetta’s mission will then to launch its Philae space probe to the comet, which will provide the first analysis of a comet’s composition by drilling directly into the surface. This will provide scientists with the first-ever interior view of a comet, and provide them with a window in what the early Solar System looked like.

rosetta-1The three NASA instruments include the MIRO, Alice, and IES. The MIRO (or Microwave Instrument for Rosetta Orbiter) comes in two parts – the microwave section and the spectrometer. The first is designed to measure the comet’s surface temperatures to provide information on the mechanisms that cause gas and dust to pull away from it and form the coma and tail. The other part, a spectrometer, will measure the gaseous coma for water, carbon monoxide, ammonia, and methanol.

Alice (not an acronym, just a nickname) is a UV spectrometer designed to determine the gases present in the comet and gauge its history. It will also be used to measure the rate at which the comet releases water, CO and CO2, which will provide details of the composition of the comet’s nucleus. IES (or Ion and Electron Sensor) is one of five plasma analyzing instruments that make up the Rosetta Plasma Consortium (RPC) suite. This instrument will measure the charged particles as the comet draws nearer to the sun and the solar wind increases.

oriontestflightNamed in honor of the Rosetta Stone – the a basalt slab that helped linguists crack ancient Egyptian – Rosetta is expected to provide the most detailed information about what comets look like up close (as well as inside and out). Similarly, the lander, Philae, is named after the island in the Nile where the stone was discovered. Together, they will help scientists shed light on the early history of our Solar System by examining one of its oldest inhabitants.

Next up, there’s the next-generation Orion spacecraft, which NASA plans to use to send astronauts to Mars (and beyond) in the not too distant future. And with its launch date (Dec. 4th, 2014) approaching fast, NASA scientists have set out what they hope to learn from its maiden launch. The test flight, dubbed EFT-1 is the first of three proving missions set to trial many of the in-flight systems essential to the success of any manned mission to Mars, or the outer Solar System.

orionheatshield-1EFT-1 will take the form of an unmanned test flight, with the Orion spacecraft being controlled entirely by a flight control team from NASA’s Kennedy Space Center located in Florida. One vital component to be tested is the Launch Abort System (LAS), which in essence is a fail-safe required to protect astronauts should anything go wrong during the initial launch phase. Designed to encapsulate the crew module in the event of a failure on the launch pad, the LAS thrusters will fire and carry the Orion away from danger.

Orion’s computer systems – which are 400 times faster than those used aboard the space shuttle and have the ability to process 480 million instructions per second- will also be tested throughout the test flight. However, they must also demonstrate the ability to survive the radiation and extreme cold of deep space followed by the fiery conditions of re-entry, specifically in the context of prolonged human exposure to this dangerous form of energy.

oriontestflight-1Whilst all systems aboard Orion will be put through extreme conditions during EFT-1, none are tested as stringently as those required for re-entry. The entire proving mission is designed around duplicating the kind of pressures that a potential manned mission to Mars will have to endure on its return to Earth, and so naturally the results of the performance of these systems will be the most eagerly anticipated by NASA scientists waiting impatiently in the Kennedy Space Center.

Hence the Orion’s heat shield, a new design comprised of a 41mm (1.6-inch) thick slab of Avcoat ablator, the same material that protected the crew of Apollo-era missions. As re-entry is expected to exceed speeds of 32,187 km/h (20,000 mph), this shield must protect the crew from temperatures of around 2,204 ºC (4,000 ºF). Upon contact with the atmosphere, the heat shield is designed to slowly degrade, drawing the intense heat of re-entry away from the crew module in the process.

orionheatshield-2The final aspect of EFT-1 will be the observation of the parachute deployment system. Assuming the LAS has successfully jettisoned from the crew module following launch, the majority of Orion’s stopping power will be provided by the deploying of two drogue parachutes, followed shortly thereafter by three enormous primary parachutes, with the combined effect of slowing the spacecraft to 1/1000th of its initial re-entry speed.

Previous testing of the parachute deployment system has proven that the Orion spacecraft could safely land under only one parachute. However, these tests could not simulate the extremes that the system will have to endure during EFT-1 prior to deployment. The Orion spacecraft, once recovered from the Pacific Ocean, is set to be used for further testing of the ascent abort system in 2018. Data collected from EFT-1 will be invaluable in informing future testing, moving towards a crewed Orion mission some time in 2021.

oriontestflight-2NASA staff on the ground will be nervously monitoring several key aspects of the proving mission, with the help of 1,200 additional sensors geared towards detecting vibration and temperature stress, while taking detailed measurements of event timing. Furthermore, cameras are set to be mounted aboard Orion to capture the action at key separation points, as well as views out of the windows of the capsule, and a live shot of the parachutes as they deploy (hopefully).

The launch promises to be a historic occasion, representing a significant milestone on mankind’s journey to Mars. Orion, the product of more than 50 years of experience, will be the first human-rated spacecraft to be constructed in over 30 years. The Orion will be launch is expected to last four hours and 25 minute, during which time a Delta-2 Heavy rocket will bring it to an altitude of 5,794 km (3,600 miles) with the objective of creating intense re-entry pressures caused by a return from a deep space mission.

And be sure to check out this animation of the Orion Exploration Flight Test-1:

Sources:, (2)