CubeSats in Education and Society



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United Nations/Turkey/European Space Agency Workshop on Space Technology Applications for Socio-Economic Benefits 14-17 September 2010 CubeSats in Education and Society Prof.Dr. Alim Rüstem Aslan Head, Department of Space Engineering Istanbul Technical University Faculty of Aeronautics and Astronautics 34469, Maslak, İstanbul aslanr@itu.edu.tr

Contents Space Research and Technology CubeSat Project ITUpSAT1 Benefits in education and society Conclusions

Space research There is less resources available as world population increases. Space research contributes greatly To the efficient utilization of resources To the development of new resources

Space Technologies In the service of society: Telecommunications, Audio and video broadcasting, TV, Distance education and health services, Environmental data gathering, Search and Rescue, Navigation, Weather forecast, Earth observations, sea and oceans, Cartography, surface observations, Agriculture, forest, water resources surveillance/management Security...

Space Technology Contribute significantly to wealth creation and quality of life, both directly and in terms of technology spin-off to other sectors

International Power Become an important power in space technologies and have major contribution to the peacefull utilization of Space Requirements: R&D and test infrastructure Qualified human resources

CubeSat Project* The CubeSat Project was developed by California Polytechnic State University, San Luis Obispo and Stanford University's Space Systems Development Lab. The CubeSat program creates launch opportunities for universities previously unable to access space. With over 60 universities and high school participating in the CubeSat program, the educational benefits are tremendous. Students, through hands on work, will develop the necessary skills and experience needed to succeed in the aerospace industry. The CubeSat program also benefits private firms and government by providing a low-cost way of flying payloads in space, all while creating important educational opportunities for future leaders of industry. The CubeSat program strives to provide practical, reliable, and cost-effective launch opportunities for small satellites and their payloads. *www.cubesat.org

Disruptive Technology CubeSatsjust a short while ago considered only for educational purposes are now on the way tobecome a disruptive technology revolutionizing the space activities. Strong support for CubeSat Projects by NSF in USA and FP, ESA in Europe (QB50) All Major Aerospace companies now have All Major Aerospace companies now have involved in CubeSat projects

ITUpSAT1

ITUpSAT1 ITUpSAT1 (Istanbul Technical University PicoSATellite) is the first pico-satellite designed, manufactured and tested in Turkey. The initial aim of the satellite was to give students experience over the whole lifecycle of a space mission, beginning from preliminary design to operations. Launched and placed in orbit on September 23 rd, 2009. First Turkish made satellite, a cubesat, ITUpSAT1 Same for switzerland, SwissCube

ITUpSAT1 Student designed spacecraft from ITU. Comply with CubeSat standart Project consideration and proposal 2005 Started 2006 (ITU and TUBITAK support) Launch September 23, 2009 Single Satellite itself costs about $0.2 million Infrastructure and support: $1 million Main objective: Low resolution (640x480 pixels) imaging. Secondary objectives: Passive magnetic stabilization and inertial data capturing. IstanbulTechnical University -Faculty of Aeronautics and Astronautics http://usl.itu.edu.tr

Satellite Clasification(Mass) Large satellites: > 1 ton (Turksat 3A) Medium size: 500 kg 1 ton Small satellites: 100kg -500kg(Göktürk II) Micro satellites : 10kg 100 kg (UoSAT-1) Nano satellites : 1kg 10 kg (Delfi C3) Pico satellites : 0.1kg -1kg (İTÜpSAT1) Femto satellites : < 0.1 kg

Launch, Beacon

SATELLITE IN A BOX

Benefits-Education Applied education: plan, design, produce, test, integrate, launch, observe a spacequalified actual satellite during education Establish design, manufacturing and testing infrasturcture Space project: higly motivated students, individuals Multidisciplinary research teams at universities Raise qualified and experienced Space Engineers for aerospace industry Increase national capability in satellite technologies

CleanRoom Integrationand and Test

TVAC

Testing and Production Infrastructure in ITU

Benefits Interdisplinary research, between people, groups, companies, departments, faculties... never get together before Low cost technology test bed High technology at very low cost in the service of society Very high impact on society and the news, TVs, web sites Create space awareness among people Interaction with elemantary and high schools

Effects on Society First satellites of countries, Turkey, Swiss,.. High spirits in society Social networking sites: FACEBOOK Radio amatuers track and record beacon signals TAMSAT, Turkish Amateur Satellite Technologies Organization (AMSAT-TR).

Design contest for CubeSat Beacon

Project student comment ITUpSAT1 was the only project who gave me pratical experience both in undergraduate and graduate level. Turkey has a very young and inexperienced space industry. This project has facilitated the transition to the practical life and has increased my intellectual level. Now I have great confidence in what I do. Besides, when considering the very high butgets involved in the space research and industry, the level of achievemnets both people and knowledgewise with such a modest budget and relatively little time is very gainly.

Project student comment Before I began to work in ITUpSAT1 project I was just an ordinary electronics engineer. As I worked in this project I have realized what we can do as an individual and society. It was a small but important step and I was part of it.

Outcomes Accounting for space debris in project planning, compliance with UN regulations A new job sector: entrepreneurship, student level, Pumpkin, ISIS, Clyde Space... Underdeveloped, developing, developed, every nation wants to built a satellite: CubeSat, To reach space is a realm of possibility for everyone...

Conclusions Continous financial support for sustainable space education with hands on experience, Keep the interest of students alive Improve greatly infrastructure and HR Involve, educate and train SMEs in space technologies and spacequalified production International collaborations