Kickstarter Project to Send Thousands of Personal Spacecraft to the Moon

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Fifty years ago, kids participated in the space race by launching homemade rockets a few hundred feet in the air. With the Pocket Spacecraft Kickstarter, space fans may send their very own personal spacecraft to the Moon for as little as £199 (about $300) or £39 (about $60) to share their voyage with 20 other lunar-tics.

The spacecraft (or Scouts) are tiny polyimide discs—three inches across, weighing about a gram, and as thin as a piece of paper—but they’ll carry solar cells for power, a miniature computer, sensor suite, and radio antenna printed on or affixed to the surface.

In fact, each Scout boasts “computing power comparable to that of the Voyager spacecraft and Apollo flight computers.”

Participants will be able to track the progress of their spacecraft on a mission control smartphone app—including an augmented reality function whereby the user points their device at the sky to find their Scout.

Beyond going to the Moon, Pocket Spacecraft hopes their Scouts are able to survive reentry and land on a planet with an atmosphere like the Earth (or Mars, or Venus, or wherever!). Though the Scouts’ capability pales in comparison to the likes of one of NASA’s Mars rovers, they could potentially record basic data like magnetic field, temperature, or pressure and send these observations back home.

If funded, Kickstarters will design and test their custom spacecraft over 18 months. The finished Scouts will be loaded into a 3U CubeSat mothership and sent into Earth orbit on a commercial rocket.

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3U CubeSat.

From orbit, phase one of the mission will send a batch of Scouts back to Earth to prove them resistant to the rigors of reentry. (And to inspire a treasure hunt to find the fallen Scouts.) The mothership will then deploy a solar sail or fire up a solar-powered electrolysis propulsion system to slingshot it around the Earth to the Moon. From lunar orbit, the ship will send the remaining Scouts to the Moon’s surface.

We recently wrote about how CubeSats are democratizing space at a furious pace. Now, there’s a push to move CubeSats beyond Earth orbit. If successful, the Pocket Spacecraft Kickstarter could be a pathfinder for interplanetary CubeSats and one of the first crowdfunded small satellites to go to another celestial body.

Polyimide substrate with a penny for scale.

Polyimide substrate with a penny for scale.

It’s an ambitious project, to be sure, but the project’s goals are plausible. CubeSat technology is maturing fast and continues to be tested in Earth orbit. And the team behind Pocket Spacecraft is experienced. Several team members worked on the early CubeSat Kickstarter, Kicksat, to be launched by NASA later this year. So, why not test the boundaries and see how far crowdfunded space projects can go?

The 22 teams competing for the $30 million Google Lunar XPRIZE (set to expire at the end of 2015) may get to the Moon first. But thousands more privately funded Scouts could invade shortly thereafter (August 2016, by the project’s ETA).

In either case, it’s remarkable that some of the first manmade objects to land on the Moon’s surface since the 70s may be built and deployed by privately funded (or crowdfunded) collaborations of enthusiastic hackers and space nerds.

Image Credit: pocketspacecraft.comPocket Spacecraft Kickstarter

Discussion — One Response

  • dobermanmacleod July 10, 2013 on 6:23 am

    And here I thought someone wised up and was going to institute this fuel-less rocket propulsion system that would be ideal for sending thousands of personal spacecraft (i.e. with PEOPLE in it) to the moon:

    http://en.wikipedia.org/wiki/Beam-powered_propulsion

    Beam-powered propulsion is a class of aircraft or spacecraft propulsion mechanisms that uses energy beamed to the spacecraft from a remote power plant to provide energy. Most designs are thermal rockets where the energy is provided by the beam, and is used to superheat propellant that then provides propulsion, although some obtain propulsion directly from light pressure acting on a light sail structure, and at low altitude heating air gives extra thrust.

    The beam would typically either be a beam of microwaves or a laser. Lasers are subdivided into either pulsed or continuous beamed.

    The rule of thumb that is usually quoted is that it takes a megawatt of power beamed to a vehicle per kg of payload while it is being accelerated to permit it to reach low earth orbit.