13 Pico-Satellites to Launch June 28th
leighklotz writes "The CalPoly CubeSat Program announced a launch date for its 13 amateur satellites: June 28, 2006 at 19:39:11Z, from the Kazakstan Baikonur Cosmodrome aboard a Russian DNEPR-1LV rocket. The satellites are made from a kit, and are 10cm cubes." Read on for more info, including links to many of the individual satellite projects.
leighklotz continues: "There are also pictures of 14 satellites and info about some of them:
- ION, University of Illinois
- RINCON, University of Arizona
- ICE Cube 1, Cornell University
- KUTESat [also] University of Kansas
- nCube nCube Norweigian University of Science and Technology
- HAUSAT-1 Hankuk Aviation University
- SEEDS Nihon University
- CP1 and CP2 Cal Poly
- AeroCube 1 The Aerospace Corporation
- Voyager University of Hawaii
- ICE Cube 2 Cornell University
These folks have a list of ongoing CubeSat projects. And as always AMSAT is a good organization to join if you have any interest in using or building your own satellites."
Wow. After looking through their price sheet it looks like you could build your own cubesat for about $20,000 US. I guess inexpensive is a relative term - still really cheap compared to the prices of a regular satellite. I wonder how much it costs them to get it up in the air.
Windows Admin Tools
YOU watch satellite
But I've always been a fan of Psyduck myself. I never understood why Pikachu got so much attention, and now he's getting his own satellites.
forcasted orbital elements below. Why are they using a 97.43 degree inclination?
.00000000 00000-0 00000-0 0 00002
.00000000 00000-0 00000-0 0 00002
.00000000 00000-0 00000-0 0 0000
.00000000 00000-0 00000-0 0 00002
.00000000 00000-0 00000-0 0 00002
P-POD A
1 99999U 06179.82920000
2 99999 097.4300 088.0700 0022000 210.1300 328.3600 15.15090000000016
P-POD B
1 99999U 06179.82920000
2 99999 097.4300 088.0700 0035000 210.1495 328.6600 15.12640000000013
P-POD C
1 99999U 06179.82920000
2 99999 097.4300 088.0700 0048000 210.1537 328.8600 15.10180000000011
P-POD D
1 99999U 06179.82920000
2 99999 097.4300 088.0700 0060000 210.1680 329.0500 15.07710000000019
P-POD E
1 99999U 06179.82920000
2 99999 097.4300 088.0700 0073000 210.1857 329.2300 15.05210000000012
It could be worse, it could be Monday.
It's always interesting to see space stuff done on a smaller scale. In some ways, it's almost more interesting. For example, while the ISS is cool, chucking a spacesuit out of the airlock to make an impromptu satellite was satisfying on some other level than I usually find, say, the latest Hubble shot. There's probably some key insight here, but I'm too tired to actually engage my brain more fully.
P.P.S. I'm doing Science and I'm still alive.
The 10x10x10cm, 1kg CubeSat standard... musn't look at pictures. Mustn't - NO! P-POD Allocations for Dnepr L1 campaign is thinking inside the box! Initial Cubesat cluster velocity magnitude measured in thousands of meters per second! CubeSat projects have the potential to educate cubeless participants and implement successful harmonic simultaneous time cube!
I went to their website but, I can't seem to find any places to buy these. I found a price list, but no distributors... Any help?
Ryan - http://www.thecosmotron.com/
they were swallowed by small dog.
September 2011: Looking for Cocoa/iOS work in Boston area Cocoa Programmer Quincy, MA
And then there were thirteen more...
www.tribalnetworks.org - helping tribal people around the world to own their own means of high-tech communications
The satellites watch you!
Pico-satellites are way better than Vi-satellites or Emacs-satellites.
I quote others only in order the better to express myself. -- Michel de Montaigne
10cm across, these aren't even micro.
I have never studied astrodynamics, and even had to go look up what exactly inclination is http://en.wikipedia.org/wiki/Inclination
So why is 97.4 degree Inclination bad, good, or are you just asking?
Sig
That is a sun synchronous orbit. Fairly useful if you are taking photos. Every time you pass over part of your orbit, the shadows will be at the same angle as your previous pass. Much easier to calculate form and height when you always know the relative angle to the sun.
It is also a useful orbit in that it covers the entire planet, including the poles. If you are interested in items, such as global warming and relative ice-pack, you need to use this sort of orbit.
Not sure if any of the sats in this are configured as Amsats, but this high an inclination could even allow people living in the far north and far south some communcation relay capability.
Maybe if you're talking first year introduction to satellites classes. As every real astrophysicist knows, however, the only way to crank out cubesats ahead of deadlines in the competitive world is to use a .SAT development environment.
13 sattelites on board of a "Satan" rocket. They should have scheduled the launch on July 6, 2006. 06/06/06.
<^>_<(ô ô)>_<^>
I briefly looked at some of the sats going up and I can't see what the point of them is. Just send them up and see if you can read the beacon? What's the point? We already know we can do that. Send back some data on system status and such? WTF?
As an amateur operator myself I would like to see something useful up there instead of more junk. Cameras, telescopes, sensors, repeaters, or something even more useful that the students come up with. I mean if you're going through all the expense at least put some creative effort into it.
The ratio of people to cake is too big
Very good, a bunch of unstearable, 10cm objects traveling at orbital velocity, that will be all but undetectable when their batteries run down. I think about 20cm of steel plate would stop one - or several astronauts in line.
DO YOU KNOW NOTHING!
-1 x -1= +1 is WRONG, it is academic stupidity and is evil. The educated stupid should acknowledge the natural antipodes of +1 x +1 = +1 and -1 x -1 = -1 exist as plus and minus values of opposite creation - depicted by opposite sexes and opposite hemispheres. Entity is death worship - for it cancels opposites. I have invested 30 years of my life and over 1/4 millions dollars researching Nature's 4 - simultaneous 24 hour days within a single rotation of Earth.
When they came for the communists, I said "He's next door. Take him away. Goddam commies."
I might even buy one to broad cast my own TV channels and music out there ;),
me or even copyleft groups like CreativeCommons can some and then take the media
companies by storm.
Great... Thank you very much... More junk in space...
This is what the best and brightest could come up with?
How about getting us back to earths natural satellite,
the moon.
"I'm all for general research, I just wish it had a general direction."
-DML
I would love to launch one of those babies with Wifi and a Webcam.
You could probably get better footage of what NASA is releasing to the public.
Skeptical?
Watch this!
http://tinyurl.com/eslxh
Comment removed based on user account deletion
do these satellites run pico/Linux?
July is the 7th month
The Kruger Dunning explains most post on
To steal a bit from Arthur C. Clarke . . . Privacy is one of those things that only works when either everyone has it, or no one does. If everyone had access to their own personal spy satellites then we're all on equal footing. (well . . a little more equal footing, anyway)
that's exactly it. With all the schools all over the place they need to make passes over each one. Plus it was where the launch was going. Secondary payloads don't get to make big decisions like where they go into orbit.
...they are MIRV warheads. RUN!
Large satellite >1000kg
Medium sized satellite 500-1000kg
Mini satellite 100-500kg Small Satellites
Micro satellite 10-100kg
Nano satellite 1-10kg
Pico satellite 0.1-1kg
Femto satellite Smart dust - one cubic millimeter
from the bottom of this article: http://www.pythom.com/news.php?id=1964
I programmed the University of Arizona cubesats. We actually have two satellites launching from the Cosmodrome this summer. The first is, as the summary notes, called Rincon. It is named for Rincon Research which provided us much of the funding. Rincon Research is in turn named for the mountain range on the East side of Tucson. The other satellite is called SACRED, and, honestly, I can't actually remember what it stands for. I think it's something in French...
The summary is not entirely correct about the construction of the cubesats. Some are indeed made from the kit, but not all. Ours, for example, were completely designed and built at the UA with the exception of the radio transceivers. SACRED also includes an experiment board designed by the Univ. of Montpelier.
Here's a much better link to a page describing the cubesats:
UA Cubesats
Some of the other posts have been complaining about the purpose of these cubesats. It's true that they are all very simple. But you have to remember that they were designed and built by students (with faculty help, of course). The UA cubesats have PIC 16F877 microcontrollers on board with 64 KB of ferromagnetic storage memory. So, it's understandable that they will be limited.
The Rincon satellite has twelve sensors which monitor voltage, temperature, and current. These will let us know how well the cubesat is working and hopefully allow us to compute its spin rate. SACRED also has an experiment board which will perform some radiation tests on a few electronic components.
These cubesats (the UA's at least) are more than just beacons, as some posters have suggested. I programmed them, so I'm well aware of their capabilities. They have, for their size, a fairly decent command structure and allow for two-way communication. They take measurements on a schedule (which can be modified) and store the results for later transmission to the ground station in Tucson, Arizona. For the extra curious among you, you can read the cubesat manual I wrote for our project:
Cubesat II Operating System Owner's Manual
Elrond, Duke of URL
"This is the most fun I've had without being drenched in the blood of my enemies!"-Sam&Max
Obviously you didn't put much effort into figuring out what these satellites do.
:)
For example, if you click on Cornell's ICE CubeSat, it takes you to the AMSAT info page for the sat, which has a link to Cornell's own page for the sat, which has LOTS of details on the design of the sat, and more importantly, the science package the sat is carrying. Most of the other university sats are also carrying some sort of science package (most of them are cameras I believe, but I'm not sure.)
To summarize it in basic terms, the Cornell ICE Cube is designed to take measurements of ionospheric phenomenon that have been causing problems with the GPS system in certain parts of the world at certain times. The phenomenon is known as scintillation and causes rapid fluctuations in the signal strength of GPS signals reaching the ground. ICE Cube is meant to take measurements of such phenomenon at high altitudes, eliminating any effects the lower layers of the atmosphere might have on the signal.
This is all assuming that the comm system works... I designed the first revision of the onboard transciever and I admit I didn't do the best job due to lack of time/experience. (I was a senior with only one semester to work on it.) From what I've heard the grad students assigned to clean up my mess did a pretty good job though.
retrorocket.o not found, launch anyway?
Isn't anyone else curious as to why the headline mentions 13 sattelites, and the article mentions 14?
:)
Not that I don't expect such things from Slashdot, but...
Chris
Co-Editor, Open Sources
Open Source Program Manager, Google, Inc.
Just to set the record straight; CubeSats are not normally "built from a kit". There's a CubeSat kit available, but none of the 14 being launched are using it, and none of the 5 satellite on the next DNEPR launch use it. It's a great kit, but it's not the only way CubeSats are made. :)
Developed by Pivdenmash - see http://www.nti.org/e_research/profiles/Ukraine/Mis sile/2164_3853.html
I'm pleased that so many of the principals involved in the Cubesat program have joined this discussion.
I didn't know that they CubeSat Kits were unrelated to the current activities, but more importantly, I want to apologize for omitting the 14th satellite, MEROPE from Montana State University. I want to thank Brian Larsen of MSU for pointing this out to me, and I hope Brian joins this discussion.
One thing I learned about all this activity around space, satellites, and its intersection with computer science and other technologies is that at least among people who are skilled enough in all those disciplines to get a satellite into orbit, amateur radio is still interesting.
One of the things I learned from Planetes (http://en.wikipedia.org/wiki/Planetes) is that these things have the capacity to kill someone on a shuttle transport in the future. Please consider the shuttle transport passengers of the future!
To answer some of the questions in this thread:
- Yes, $20k is actually cheap to build a satellite, but most of the schools did not buy kits and instead fabricated their sats themselves or bought COTS pieces from different sources.
- 97.4 degree inclination is sun-sync and was not chosen by the schools. The cubesats are piggy-backing on the Russian rocket that has a full-sized foreign bird as a primary payload.
- If you're asking yourself what's the point of a project like this, you've missed the idea completely - the most important being student education. Today kids in elementary schools are learning to program in c to control simple robots, in high school they create teams of controlled and autonomous robots to compete in games, in college they are building satellites. What did YOU do in school? It's insulting to degrade/downplay the significance of putting a working satellite in space and sending data (whether it be a beacon or otherwise) as designed. If it was so easy to do, there wouldn't be billions of dollars worth of failed satellites floating in space or disintegrated into atmospheric dust.
- The altitude these cubes will be at is low enough to eventually decay in some years, so contributing to space debris is (hopefully) not an issue.
- The launch cost was distributed among the schools participating. The rate has changed over time, but at last I recall it was about $40k per 10 cm, 1 kg cube - that's a smokin good deal for putting anything into space.
- One drawback to this piggy-back launch approach is actual launch occurs when the primary payload is complete. Miss the bus and you're walking. Additionally, some of the foreign bird projects get ridiculously delayed. Some of the cubes on this launch had been completed and sat through delay after delay for 2 years.
However this satellite opportunity still can't currently be beat for a low-cost, quick production, high-risk, satellite project.
They must be looking for trouble
You just got troll'd!
I'm sure the team of highly qualified scientists and aerospace experts that put this involved and complex undertaking together have of course made a catalogue of schoolboy errors that justifies the obligatory torrent of ineffectual and ill informed wieners picking "insightful" holes in the concept and execution, by employing idle speculation and a few insignificant fragments of knowledge about something that is way beyond their ability to execute any better than the people they are sneering at.
This rocket was actually developed in Dnipropetrovsk KBU. When I was a boy I lived there and still can remember how these engines roar when they tested them far away from the city.
One day we snicked there thru security to see rockets but saw just parts prepared for the final assembly.
I remember designing with the PC/104 bus how naturally cube-shaped the results were. It was a serious limitation with packaging and mounting because no single dimension could be less than four inches. (E.g. some large flat areas were available but unusable.) Odd that a satellite might be the worlds most ideal packaging for PC/104 applications.
Bob Stein, http://bobste.in