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Space Exploration on the Cheap: Kickstarter Sensation NanoSatisfi Launches in 2013

While information technology may be advancing exponentially—the pace of the space race has seemed glacial since the 1970s. By now, most of us are used to a top-down, monolithic model of space exploration with associated costs liable to make Dr. Evil blush. The message? Space exploration is not for you.

But a new generation of space startups is aiming to change all that. It’s the people’s space race, and companies like San Francisco’s NanoSatisfi dream of making space exploration affordable and accessible for students, researchers, and hobbyists.

While SpaceX grabs glitzy headlines by lowering launch costs (who doesn’t like rockets?), NanoSatisfi is working the other end of the equation. How to increase the efficiency of every pound we send up—and how to better harness the market to innovate further improvements.

NanoSatisfi co-founder, Peter Platzer.

If all goes to plan, NanoSatisfi will have supporters of their Kickstarter sensation ArduSat snapping photos, uploading applications, and running experiments from orbit within a year.

Singularity Hub asked Peter Platzer, co-founder of NanoSatisfi, to elaborate when we sat down with him at NanoSatisfi’s headquarters recently.

NanoSatisfi is based out of a collective workspace provided by tech incubator, Lemnos Labs, and situated near the ballpark in downtown San Francisco. Upon arrival, one is greeted by a nondescript front door sporting a few haphazardly labeled buzzers.

None smell the least bit hackerish. That’s because NanoSatisfi doesn’t have a buzzer—Lemnos Labs is in the garage.

The team works alongside a number of other tech startups. One group is laboring over hamburger technology. Another has their eye on the perfectly roasted coffee bean. A third is working on commercial unmanned aerial vehicle (UAV) tech. And nestled in with the rest, NanoSatisfi is designing and building satellites.

For those of us living in early 21st century San Francisco—foodies and geeks peacefully hacking high-tech in a garage is too deliciously apt to bear.

After a tour to meet the team and check out the cool stuff on their workbenches, we sat down in a shared conference room and asked Platzer for his Twitter pitch.

Hardly batting an eyelash—a man in the midst of an angel round—he answered, “We democratize access to space exploration, space images, and space data through a user-programmable imaging and data platform for $250 a week.”

Platzer began his career as a high-energy physicist at CERN. Back then, they had a Cray computer the size of a room to do some of the most advanced physics in the world. Today, the power of that Cray sits in the palm of your hand—an iPad.

NanoSatisfi co-founders, Jeroen Cappaert and Joel Spark.

Yet huge satellite projects, years in the making, rarely if ever make the most of the newest technology. Further, they are extremely costly, non-standard, and require highly specialized technical skills to build and operate.

NanoSatisfi (and others) aim to tear down these barriers to entry with the CubeSat.

CubeSats are standardized small satellites, 10 centimeters to a side and weighing a kilogram or less. They are cheaper to build and launch (by orders of magnitude) than traditional satellites.

But CubeSats alone are still fairly expensive—a few hundred grand, all in.

So, NanoSatisfi will design, build, and launch their own CubeSat—and here’s the key—with a user-programmable Arduino-based computer and a suite of 20 instruments.

Researchers, students, and hackers can then rent satellite time and upload applications to the CubeSat from Earth for a modest sum.

Platzer notes, “Disruptive technology makes non-users into users.” Because of the costs and technical hurdles of space exploration there are many, many non-users. Pretty much all of us in fact. But provide an uplink to a pre-fabricated CubeSat already in orbit, and you open the field to thousands.

Platzer says it’s like an iPhone and app store for space-based technology.

“Within four years people built on the iPhone—which is one microprocessor and four sensors, the camera, microphone, accelerometer, and gyro—they built 700,000 applications. Four years! Our space platform is a microprocessor and 20 sensors! I let the user innovate.”

After CERN, Platzer went to Harvard to get his MBA and wound up running a $500 million quant fund on Wall Street. But space exploration called. He went back to school to get a master’s degree at the International Space University and became convinced now is a very exciting time for space exploration. A rebirth of sorts.

Platzer says NanoSatisfi chose Kickstarter to validate the product in the marketplace and guage demand. Post-Kickstarter they’ve opened a $1 million angel round to fund the next phase of the business. “The angel round is doing very well. We literally started beginning of last week, and as of today, we are 75% done already.”

The firm is searching for advisors and wants to assemble a board rich with experience and talent. “At the end of the day, I’m 100% invested in the success of the company, and if that means we give up a little equity early on, then we do that.”

NanoSatisfi’s ArduSat vacuum test chamber.

For now, the team is focused on their Kickstarter project, ArduSat—a user controlled Arduino-based computer and sensor array, housed in a GOMSpace 1U CubeSat powered by solar panels.

Kickstarter supporters who pledged $150 get to take up to 15 pictures using the satellite. $325 or more reserves satellite time during which users can upload and run applications using ArduSat’s sensors.

Because the Kickstarter raised more than expected—$106,330 from a goal of $35,000—they’ll build two CubeSats instead of one. And the really big news, they’ve secured launch slots for both satellites in 2013 through NanoRacks.

Next the NanoSatisfi team will get down to the business of building two space-worthy satellites. And if anyone’s up to the task, it’s these guys. They’re a talented bunch—hackers extraordinaire.

Joel Spark is the team’s aerospace engineer. Spark recently built a vacuum test chamber. From scratch. In three days. No big deal. The vacuum chamber helped the team model how heat flows off the payload. (In orbit, there’s no air flow to move heat away from electronics. ArduSat will use a thermal spreader to conduct heat to the edges of satellite and into space.)

ArduSat payload and container back home safely after 85,000 foot balloon test.

Jeroen Cappaert is a mechanical engineer with Arduino experience. Cappaert and Platzer designed the architecture allowing ArduSat’s Arduinos to be remotely programmed in space. And just recently, Cappaert took the ArduSat payload on a field trip to Colorado.

On October 27, in partnership with Edge Research Lab, he sent the ArduSat payload 85,000 feet up tethered to a hydrogen balloon.

The test was successful, and added to the vacuum chamber test data from back in San Francisco, the team will perfect their design to ensure it is in tip-top shape for next year’s launches.

Getting these first two CubeSats right is paramount. But if all goes well, they’ll continue on with the larger plan.

NanoSatisfi hopes to use angel funds to expand their network of ground stations (for satellite communication), build an online interface, and sign up interested organizations to use the ArduSat model for space-based education.

The team will offer a $250, six-month course of hands on hacking for students—and a week satellite time to test their results in space. (Best final exam ever?) By 2020, Platzer sees a swarm of NanoSatisfi CubeSats providing space-based STEM education, cheap space-based hardware and software testing, and affordable commercial space data (up to date space weather, for example). See here for the NanoSatisfi vision in full:

As Platzer says, “We’re bringing the Wall Street pace to space. We started on the back of a napkin six months ago, and now we have $100,000 in Kickstarter pledges, a fully designed satellite, a successful test-flight, and a 2013 launch slot!”

Next stop orbit—the more, the merrier.

(For those interested in working with NanoSatisfi as an employee, advisor, or investor—contact Peter Platzer at peter@nanosatisfi.com. Platzer says, “Talk to us now, not in three months…things are moving fast!)

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2 comments

  • Andrew Atkin
    Andrew Atkin says:

    The most efficient way (I can think of) of putting small unmanned payloads into space:

    Make a rotating arm (think of a vertically-mounted 2-blade helicopter). About 10-meters for the long arm and 3 meters for the short arm. Your small rocket is mounted at the end of the long arm, and it is spun-up so that it reaches 2,500 km/h (about mach_2). At the end of the small 3-meter arm you have a heavy counterweight that remains subsonic. Once it’s spun-up to speed, the rocket is released and “shot” into space.

    Mount the structure in a hydrogen chamber while spinning (to avoid incredible noise and improve efficiency), and build the outer half of the long arm from composite materials. Operate it at the earth’s equator for improved efficiency still.

    Rockets are horribly inefficient for slow speed operation. A device like this could hugely reduce launch costs, and may make sense for a high-frequency low-payload application where the launching device can be relatively small and cheap, and intensively used.

    Andrew Atkin

    Note: You can ultimately use a ramjet as an intermediate phase (between mach_2 – 5), but I doubt it would be worth developing for a long while.

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