Buradasınız

GÜNEBAKAN: UZAY TABANLI GÜNEŞ ENERJİ SİSTEMİ

SPACE-BASED SOLAR POWER SYSTEMS

Journal Name:

Publication Year:

Abstract (2. Language): 
In this study, to be able to establish commercially viable space-based solar energy systems in space, the state of the art and their future aspects are presented with regard to space law, economy and other need-to-improve aspects of related technology such as transportation from the Earth to orbit, generation of the energy and its wireless transmission. Moreover, ideas and solutions how to develop a commercial value for the space-based solar energy systems are elaborated. Finally, considering the Turkey’s 2035 vision, a conceptual design of a GEO commercial space based solar power system, named as “Günebakan” that would generate 500 MW electricity, on earth is given.
Abstract (Original Language): 
Bu çalışmada uzay tabanlı güneş enerji sistemlerinin uzayda kurulumunu gerçekleştirip, yeryüzündeki diğer enerji kaynakları ile ekonomik olarak rekabet edebilmesi için; geliştirilmesi gereken, yeryüzünden yörüngeye ulaşım, enerji üretimi ve kablosuz enerji iletimi gibi teknolojilerin mevcut durumu ve geliştirme çalışmaları ayrıntılı bir şekilde hukuki yönleri de dahil olmak üzere ele alınmıştır. Uzay tabanlı güneş enerji sistemlerinin ticari olarak gerçekleştirilebilmesi için değerlendirmeler ve çözüm önerileri sunulmuştur. Son olarak, Türkiye’nin 2035 vizyon hedefi göz önüne alınarak, “Günebakan” adı verilen, Güneş eş zamanlı yer yörüngesinde, ticari olarak kullanılmak üzere kurulacak ve yeryüzünde 500 MW elektrik sağlayacak, uzay tabanlı güneş enerji sistemi kavramsal tasarımı yapılmıştır.
27
38

REFERENCES

References: 

[1] Hoffert, M. I., Caldeira, K., Benford, G., ve
diğ., (2002) Advanced Technology Paths to Global
Climate Stability: Energy for a Greenhouse Planet,
Science, 298, 981–987
[2] McNEILL, J. R., (2000) Something New
Under the Sun An Environmental History of the
Twentieth-Century World, New York: W. W. Norton &
Company, 490.
[3] Mankins, J. C. (2011). Space Solar Power: The
First International Assesment of Space Solar Power:
Opportunities, Issues And Potantial Pathways
Forward, International Academy Astronautics,
Toronto, Canada.
[4] International Energy Agency., (2013) 2013
Key World Energy Statistics.
[5] Hayami, H., Nakamura, M. ve Yoshioka, K.,
(2005) The Life Cycle CO2 Emission Performance of
the DOE/NASA Solar Power Satellite System: A
Comparison of Alternative Power Generation Systems
in Japan, IEEE Transactions on Systems, Man and
Cybernetics, Part C: Applications and Reviews, 35,
391–400.
[6] Hubbert, M. K., (1956) Nuclear Energy and the
Fossil Fuels, Drilling and Production Practice (1986)
American Petroleum Institute, San Antonio, Texas.
[7] Maggio, G. ve Cacciola, G., (2012) When will
oil, natural gas, and coal peak?, Fuel, 98, 111–123.
[8] Glaser, P., (1973) Method and apparatus for
converting solar radiation to electrical power, United
States Patent, No: 3781647 A
[9] Dietz, R. H., Arndt, G. D., Seyl, J. W.,
Leopold, L. ve Kelly, J. S., (1981) Satellite Power
System: Concept Development and Evaluation
Program, NASA Reference Publication 1076 Volume
III - Power Transmission and Reception Technical
Summary and Assessment.
[10] Mankins, J. C., (1997) A fresh look at space
solar power: New architectures, concepts and
technologies, Acta Astronautica., 41, 347–359.
[11] Mankins, J. C., Howell, J. T. ve O’Neil, D. A.,
(2000) New Concepts and Technologies from
NASA’s Space Solar Power Exploratory Research and
Technology Program Systems Integration, AIAA.,77–
89.
[12] National Research Council., (2001) Laying the
Foundation for Space Solar Power: An Assessment of
Günebakan: Uzay Tabanlı Güneş Enerji Sistemi
YILDIZ, ASLAN
37
NASA’s Space Solar Power Investment Strategy, The
National Academies Press. Washington, D.C.
[13] Seboldt, W., Klimke, M., Leipold, M., ve
Hanowski, N., (2001) European Sail Tower SPS
concept, Acta Astronautica., 48, 785–792.
[14] State of California Public Utilities
Commission., (2010) Contract for Procurement of
Renewable Energy Resources Resulting from PG&E’s
Power Purchase Agreement with Solaren Corporation.
[15] Rogers, J. E., ve Spirnak, G. T., (2009) Space-
Based Power System, United States Patent, No:
7612284 B2 tarih: 03.11.2009.
[16] Mankins, J. C., (2012) SPS-ALPHA: The First
Practical Solar Power Satellite via Arbitrarily Large
Phased Array (A 2011-2012 NASA NIAC Phase 1
Project), Artemis Innovation Management Solutions
LLC,. Santa Maria, California.
[17] T.C. Ulaştırma Denizcilik ve Haberleşme
Bakanlğı, (2013) 11. Ulaştırma Denizcilik ve
Haberleşme Şurası Sonuç Bildirgesi.
[18] Sasaki, S., Tanaka, K. ve Maki, K., (2012)
Technology Development Status For Space Solar
Power Systems, IAC-12.C3.1.4, The 63rd International
Astronautical Congress, Naples, Italy, 1-5 Ekim.
[19] National Security Space Office., (2007) Space-
Based Solar Power As an Opportunity for Strategic
Security.
[20] Url-3< http://www.spacex.com/falcon-heavy>,
alındığı tarih: 13.01.2014.
[21] Olds, J. R. ve Bellini, P. X., (1998) Argus, a
Highly Reusable SSTO Rocket-Based Combined
Cycle Launch Vehicle with Maglifter Launch Assist,
AIAA 8th International Space Planes and Hypersonic
Systems and Technologies Conference.,
Norfolk,VA,USA..
[22] McNally, I., Ceriotti, M. ve Radice, G., (2012)
Systems Analysis Of The Sandwich Solar Power
Satellite, IAC-12.C3.1.9, The 63rd International
Astronautical Congress, Naples, Italy, 1-5 Ekim.
[23] Powell, J. R., Maise, G., Paniagua, J. ve
Rather, J. D. G., (2001) StarTram : A New Approach
for Low-Cost Earth-to-Orbit Transport, 2001 IEEE
Aerospace Conferance., Big Sky, Montana, USA. 10-
17 Mart.
[24] Edwards, B. C., (2000) Design and
Deployment of A Space Elevator, Acta Astronautica.,
47, 735–744.
[25] Johnson, L., Meyer, M., Palaszewski, B.,
Coote, D., Goebel, D. ve White, H., (2013)
Development priorities for in-space propulsion
technologies, Acta Astronautica., 82, 148–152.
[26] Ito, Y., Nakano, M., Schönherr, T., Cho, T.,
Komurasaki, K. ve Koizumi, H., (2012) In-Space
Transportation of a Solar Power Satellite U sing a Hall
Thruster Propulsion System, 2012 International
Conference on Renewable Energy Research and
Applications (ICRERA)., Nagasaki, Japan. 11-14
Kasım.
[27] Jenkins, L. M., (2000) Issues in development
of space-based solar power, 2009 IEEE Aerospace
conference., Big Sky, Montana, USA. 7-14 Mart.
[28] Yamagiwa, Y., (2004) Space tethers: Low
Cost Future Orbit Transfer System for Massive and
Frequent Transportation with Construction of Solar
Power Satellites, 2004 Asia-Pacific Radio Science
Conference., Qingdao, China.
[29] URSI, (2005) Supporting Document for the
URSI White Paper on Solar Power Satellite Systems,
URSI Inter-commission Working Group on SPS.
[30] Url-6<
http://www.nrel.gov/ncpv/images/efficiency_chart.jpg
>, alındığı tarih: 05.03.2014.
[31] Jain, A. D. K. ve Agarwal, D., (2013) Design
Of Efficient Solar CellsFor Maximum Power
Generation, IAC-13.C3,P,16.P1, The 63th
International Astronautical Congress, Beijing, China,
23-27 Eylül
[32] Ma, Z. ve Vandenbosch, G. A. E., (2013)
Optimal solar energy harvesting efficiency of nanorectenna
systems, Solar Energy., 88, 163–174.
[33] Vandenbosch G. A. E. ve Ma, Z., (2012) Upper
bounds for the solar energy harvesting efficiency of
nano-antennas, Nano Energy., 1, 494–502.
[34] Jaffe, P. ve McSpadden, J., (2013). Energy
Conversion and Transmission Modules for Space
Solar Power, IEEE Proceedings., 101, 1424–1437.
[35] Strassner, B. ve Chang, K., (2013) Microwave
Power Transmission: Historical Milestones and
System Components, IEEE Proceedings., 101, 1379–
1396.
[36] Glaser, P. E., Davidson, F. P. ve Csigi, K. I.,
(1994) Solar Power Satellites, Wiley: New York,
NY, USA.
[37] Sasaki, S., Tanaka, K. ve Maki, K., (2013)
Microwave Power Transmission Technologies for
Solar Power Satellites, IEEE Proceedings., 101,
1438–1447.
[38] International Telecommunication Union.,
(2012) Wireless power transmission, QUESTION
ITU-R 210-3/1. Alındığı tarih: 05.06.2014, adres:
http://www.itu.int/pub/R-QUE-SG01.210-3-2012
[39] Shinohara, N. ve Ishikawa, T., (2011) High
efficient beam forming with high efficient phased
array for microwave power transmission, 2011
International Conference on Electromagnetics in
Advanced Applications, Torino, Italy. 12-16 Eylül.
Günebakan: Uzay Tabanlı Güneş Enerji Sistemi
YILDIZ, ASLAN
38
[40] Sasaki, S., Tanaka, K. ve Mission, A., (2011)
Wireless power transmission technologies for solar
power satellite, 2011 IEEE MTT-S International,
Baltimore, MD, USA. 5-10 Haziran.
[41] Crapart, L. ve Marescaux, E., (2011) Legal
Aspects of Solar Power Satellites FINAL REPORT,
IDEST, Paris University/ ESA.
[42] Honjo, K., Ishikawa, R. ve Takayama, Y.,
(2012) Ultra high efficiency microwave power
amplifier for wireless power transmission, 42nd
European Microwave Conference., 1339-1342.
Amsterdam, Netherlands. 29 Ekim-1 Kasım.
[43] Brown, C. D. (2002). Elements of Spacecraft
Design, AIAA Education Series., Reston ,VA. USA.
[44] Mori, M., Kagawa, H. ve Saito, Y., (2006)
Summary of studies on space solar power systems of
Japan Aerospace Exploration Agency (JAXA), Acta
Astronautica., 59, 132–138.
[45] Feingold, H. ve Carrington, C. (2003).
Evaluation and comparison of space solar power
concepts, Acta Astronautica., 53, 547–559.
[46] Leitgab, M., (2013) Hypermodular Self-
Assembling Space Solar Power - Design Option for
Mid-Term GEO Utility-Scale Power Plants, 2013
IEEE International Conference on, Wireless for Space
and Extreme Environments (WiSEE)., Baltimore, MD,
USA. 7-9 Kasım.

Thank you for copying data from http://www.arastirmax.com